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DEFENSE SCIENCE BOARD | DEPARTMENT OF DEFENSE<br />
6.2.4. Why Does the Task Force Think the Testing Capability Would Work?<br />
Almost all successful developments of major systems of systems have used testing capability<br />
development and iteration. DoD in particular has a long history of using testing and<br />
experimentation, augmented by simulation, to develop successful systems. The near real time<br />
experiment‐iterate‐adapt cycle for countering IEDs simultaneously developed technical<br />
capabilities (e.g., ODIN & MAD DAWG) with CONOPs. Earlier, during the Cold War, there were<br />
key developments in which test‐beds used in conjunction with operational experience led to<br />
important improvements in theater weapons, forces, and their CONOPS. These included:<br />
• “Shockwave” in the North Atlantic Treaty Organization (NATO) Central Region during the<br />
1970s and 1980s (see the next section of this chapter for a more complete description);<br />
• SORAK (N.E. Asian theater) 37 ;<br />
• Pershing IA and ground launched cruise missile (GLCM) endurance experimentation<br />
during the 1980s 38 ;<br />
• Horizontal and vertical dispersion of dual‐capable aircraft (DCA) to improve theater<br />
nuclear force (TNF)‐DCA force endurance.<br />
Major force component assessments and requirements have also been developed using testbed<br />
approaches, including the Navy’s submarine survivability program and the Air‐Land battle<br />
command robustness.<br />
The nonproliferation and arms control community is not a stranger to such approaches,<br />
although systems integration and experimentation are not as common. For example, Sandia’s<br />
Technical On‐Site Inspection (TOSI) site was used effectively to develop on‐site inspection<br />
approaches.<br />
6.2.5. What Should Be Done to Get Started?<br />
The first application of the testing capability should be one for which progress would address a<br />
major shortfall in current capabilities and possibly open the door for new arms control<br />
agreements. Monitoring dual‐capable/TNF weapon systems was selected as a leading example<br />
for these reasons. The challenges for <strong>monitoring</strong> TNF systems are discussed in the next section,<br />
followed by ideas for getting started on learning how to monitor them using the testing<br />
capability in Section 6.4.<br />
37 SORAK was a South Korean experimentation concept developed in the late 1970’s and early 1980’s based on<br />
Shock Wave. It was sponsored by Commander‐in‐Chief, U.S. Pacific Command (CINCPAC) and supported by<br />
DARPA, as part of the joint United States‐ South Korean exercise Ulchi Focus Lens. The concept was intended to<br />
create an all source testing capability to observe operations.<br />
38 Pershing II and GLCM operations were driven by the need for survivability in moving units out of peacetime<br />
garrison in crisis and in move‐and‐hide tactics in the field in crisis and war. These operations were developed<br />
iteratively using red‐teamed test‐bed exercises coupled with simulations, both in CONUS and in Europe.<br />
DSB TASK FORCE REPORT Chapter 6: Experiment to Iterate and Adapt: National Testing Capability | 69<br />
Nuclear Treaty Monitoring Verification Technologies<br />
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