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Sea-launched RQ-7 Shadow |
- Test the ability to embark, support, and employ dozens (if not 100+) of small UAVs from large deck amphibious ships. Determine maximum sortie rates/ISR lines achievable, C2 and bandwidth requirements, manning and maintenance needs, and the best ratios of manned rotary wing to unmanned ISR/strike aircraft. An LHA/LHD would be an ideal platform for this testing, not only due to deck and hangar space, but because of available bandwidth, staff planning/C2 spaces, and the ability to reserve some deck space for manned aircraft used to move the various ground forces involved.
- Develop concepts to support persistent armed overwatch to more lightly armed small ground units and ships and combatant craft at hundreds of miles away from the mother ship. This concept has been proven time and again on the battlefields of Iraq and Afghanistan, reducing the risks to small remotely operating troop elements and giving these elements the ability to see and sometimes engage the threat over the next ridgeline. Lightly armed vessels operating independently such as mine countermeasures, logistics ships, and yes, LCS, would benefit from having a 24x7 eye in the sky extending the ship's organic sensors, and dealing with low end threats, while allowing embarked manned helicopters to conduct higher value missions.
- Test over-the-horizon cooperative targeting and engagement between these same formations against surface and ground threats.
- Explore new lightweight payloads that would exploit the capabilities of large numbers of small persistent drones. These might include jammers, improvised expeditionary communication networks as an alternative to satellite communications, ASW sensors, and the ability to deploy remote unattended ground and ocean sensors.
- Develop ways to employ smaller ships as forward arming, refueling, and communications relays for these aircraft.
- Assess the ability to bring large formations of these aircraft together into cohesive swarms to defeat boat swarms in the littorals or complex insurgent attacks in an urban environment. Model the use of these massed formations of low cost UAS to penetrate air defenses and attack larger ground and surface targets. A few dozen 11 pound munitions would not sink a large naval combatant, but employed creatively they might achieve a mission kill rendering that vessel's sensors and weapons systems inoperable. Use the results of these tests to develop artificial intelligence algorithms that will reduce the manning necessary to control such a large fleet of remotely piloted aircraft.
- Employ the above concepts with various deployed nodes of special operations forces, Marine, and NECC elements, in an effort to understand the capabilities and limitations each of these units brings to the distributed littoral fight.
- Test all of the above concepts in electronically-challenged environments. Naysayers of network-centric warfare are quick to point out the difficulties of fighting in an environment where jamming is present. The thing about distributed operations from the sea is that since the platforms are always moving, fixing them and relocating jammers to be effective is more challenging than it would be in a static environment. Many critics have rightfully pointed out the liability that LCS speed requirements have produced to payload, range, and overall platform cost, but in an EW environment, her speed becomes an asset. Jammers have limited ranges and small more numerous platforms able to relocate faster than the enemy's jammers will be able to mitigate some of those issues.
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RQ-7B with Shadow Hawk munition |
The opinions and views expressed in this post are those of the author alone and are presented in his personal capacity. They do not necessarily represent the views of U.S. Department of Defense, the US Navy, or any other agency.
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