By mid-decade, the U.S. Army should be able to pull together all of its sensor and weapons systems into a single net-centric platform for air defense. This technological family reunion will foster an interoperability that makes future gatherings flow smoothly, both in theater and elsewhere. Like getting grandma and Uncle Joe wired into e-mail or Facebook, the Integrated Air and Missile Defense (IAMD) Battle Command System (IBCS) program will connect Army forces for quicker data access, and faster action. In this issue of SIGNAL Magazine, Henry S.
By reinventing technology decades old, researchers have created a new sensor with the ability to perceive nanoscopic amounts of chemical or biological materials. It now awaits development and manufacturing for practical application.
In this month's SIGNAL Magazine, Rita Boland explains the method and impact of new sensor technology in the article "Technology Aims to Trace Sub-Microscopic Troubles."
Scientists Nickolay Lavrik and Panos Datskos at Oak Ridge National Laboratory employ microelectromechanical systems and nanoelectromechanical systems, which have been around a while, to create a generic sensor that can spot a specific substance.
As the U.S. Navy modernizes information systems across the fleet, one organization is responsible for researching, developing and fielding the full range of technologies in the Asia-Pacific region, providing complete life cycle development and support for systems, from concept to fielded capability.
Fiscal year 2015 marks the official kickoff of a U.S. Army program to develop a foliage-penetrating radar that will simultaneously locate still objects and track moving objects from a fast-moving fixed-wing aircraft. The next-generation system is designed specifically for jungle environments such as the Asia-Pacific region, South America and Africa, and by combining multiple capabilities onto one platform, it will allow the service to cut down the number of sensors currently needed.
The U.S. Army is preparing—for the first time—to develop and field micro robotic systems under programs of record, indicating confidence that the technology has matured and years of research are paying off. The small systems will provide individual soldiers and squads with critical intelligence, surveillance and reconnaissance data in jungles, buildings and caves that larger systems can’t reach. Ideally, they will become valued combat team members.
The U.S. Marine Corps Warfighting Lab this week wrapped up an Advanced Warfighting Experiment (AWE) in the jungles of Hawaii, which tested a total of 16 systems including unmanned ground vehicles. The experiment was part of the July 9 -14 Rim of the Pacific exercise and could help determine how future Marine forces will fight and which technologies they will use.
The experiment included Marines aboard Navy ships as well as three company landing teams, a relatively new organization construct for the service. The company landing teams are altered rifle companies and represent a different approach to the Battalion Landing Team.
U.S. Army officials envision a future in which ground and air platforms share data and where soldiers at a remote forward-operating base easily can access information from any sensor in the area, including national satellites or reconnaissance aircraft flying overhead. To achieve this big data vision, the service has initiated three pilot projects designed to provide Google-style access in a tactical environment to the lowest echelon without overwhelming soldiers with unnecessary data.
U.S. Defense Department officials intend to complete a departmentwide spectrum strategy road map this month, which will make more frequencies available to warfighters, provide greater flexibility—especially for international operations—and ultimately allow warfighters to conduct their missions more effectively. At the same time, however, some are suggesting a nationwide strategy to allow for more innovative and effective spectrum management and sharing across government and industry.
With the war in Afghanistan winding down, the U.S. Defense Department’s rapid deployment office, which specializes in identifying, developing and quickly fielding game-changing technologies, now will take a more long-term approach. Slightly stretching out the process will offer more flexibility to procure the best possible systems, will present more opportunities for interagency and international cooperation and may cut costs.
The complexities of the U.S. Army’s networks and spectrum allocation processes interfere with the need to reassign units to different tasks, creating major delays and presenting serious challenges. To solve the issue, researchers intend to deliver a wide range of technologies, including automated spectrum planning and allocation tools and smarter radios, that will use spectrum more efficiently, network more effectively and provide commanders the flexibility to reorganize as needed.
Representatives from the U.S. Army and Air Force, along with 17 NATO nations and three partner nations, will participate in a joint reconnaissance trial at Orland Air Station in Norway May 19-28 to test and evaluate intelligence, surveillance and reconnaissance (ISR) concepts and technologies. The Unified Vision 2014 (UV14) trial will be NATO’s largest-ever ISR trial and will be used as a major stepping stone to provide NATO warfighters with an enhanced set of ISR capabilities.
The U.S. Air Force is emerging from almost 13 years of conflict in the Middle East with a different perspective on its intelligence, surveillance and reconnaissance. Lessons learned from those battlefields are leading to new directions that will entail abandoning traditional approaches and methods.
By the end of this fiscal year, the next-generation command and control system for much of the cutter fleet should be installed on the U.S. Coast Guard’s 270-foot cutter class, and the system is now being considered for inclusion on 225-foot and 110-foot vessels. The system, called SeaWatch, combines navigational and tactical, optical surveillance and communications into one situational awareness picture; provides commonality across the fleet; and replaces an aging system that has outlived its usefulness.
Scientists and engineers from MITRE Corporation and Harvard University published a paper this week revealing the development of what they call the most dense nanoelectronic system ever built. The ultra-small, ultra-low-power processor could be used for tiny robotics, unmanned vehicles and a broad range of commercial applications, including medical sensors.
The emergence of big data combined with the revolution in sensor technology is having a synergistic effect that promises a boom in both realms. The ability to fuse sensor data is spurring the growth of large databases that amass more information than previously envisioned. Similarly, the growth of big data capabilities is spawning new sensor technologies and applications that will feed databases’ ever-increasing and diverse types of information.
An upgrade featuring a lightweight sensor and software system added to smaller unmanned vehicles can provide capabilities similar to those available on larger vehicles. As the Defense Department realigns its operational focus to the Pacific, deployable forces, such as special operations teams and Marine Corps expeditionary forces, need high-quality airborne intelligence, surveillance and reconnaissance. While such capabilities are normally provided by unmanned aircraft such as the MQ-1 Predator, smaller platforms have to meet this need for troops operating in remote areas. These smaller vehicles require fewer personnel and are easier to maintain, but they are also less capable.
The U.S. Navy is expanding its autonomous subsurface fleet with the introduction of a platform designed for persistent intelligence, surveillance and reconnaissance (ISR) as well as offensive capabilities. Dubbed the Large Displacement Unmanned Undersea Vehicle (LDUUV), the program of record should result in a system that offloads missions from other assets.
To ease the load on weary warfighters inundated with too much information, U.S. Navy scientists are turning to artificial intelligence and cognitive reasoning technologies. Solutions that incorporate these capabilities could fill a broad array of roles, such as sounding the alarm when warfighters are about to make mistakes.
The U.S. Navy intends to deploy an arsenal of airborne, surface and underwater unmanned systems for its new shallow-water combat ship. The array of unmanned systems will extend the ship’s intelligence, surveillance and reconnaissance capabilities, enhancing awareness of enemy activities, and will reduce the number of sailors deployed to minefields, saving lives.
A prototype sensor technology under development will enable soldiers to identify threats more rapidly in low-light environments and to share target images with other squad members. Consisting of several types of small multispectral cameras, the system will use smartphone technology in the form of a warfighter’s handheld mobile device to process and fuse the camera data into high-resolution color images for the soldier’s helmet display. That display imagery can then be transmitted wirelessly to other soldiers.