monitoring
monitoring
monitoring
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UNCLASSIFIED<br />
DEFENSE SCIENCE BOARD | DEPARTMENT OF DEFENSE<br />
5.6.1. Big Data Analytics<br />
A popular term for an area that is growing rapidly in R&D investments, big data refers to<br />
collections of data sets so large and complex that until recently they were impossible to exploit<br />
with available tools. One can successfully argue that the era of big data arrived quite a while<br />
ago for the intelligence and military communities with the collection of data from sensor and<br />
other sources of information that overwhelmed the capacity to exploit all, or even most, of it.<br />
Technologies are rapidly evolving commercially to enable the storage, access, computational<br />
processing, etc., of such large data sets, but will require different “data centric” architectures<br />
and more importantly, new analytical tools for exploitation. A major tradeoff––or limitation––<br />
is emerging in big data analytics with the realization that the transmission latency among<br />
storage devices in a cloud based architecture is overwhelming the processing time for<br />
computational operations. As such, the analytics need to stay near the data; i.e., in a “back to<br />
the future” sense, large banks of co‐located processors will form the big data processing<br />
architecture of the near future in those cases where the data is growing and/or changing<br />
rapidly. The strategic <strong>monitoring</strong> capability argued for in this report is one such example.<br />
5.6.2. Crowdsourcing of Commercial Imagery<br />
The use of crowdsourcing for nuclear <strong>monitoring</strong> offers the potential of increasing analytical<br />
capabilities without necessarily a substantial increase in the funding for specially designated<br />
offices for counterproliferation analysis. For example, the Task Force believes that crowdsourcing<br />
of commercial imagery is one avenue that should be pursued. Imagery analysts<br />
focusing on counterproliferation at the National Geospatial‐Intelligence Agency (NGA) and<br />
other organizations could focus their efforts on the higher priority and time‐sensitive<br />
CP requirements, while crowdsourcing could be implemented for less critical imagery<br />
analysis requirements. The viability of the concept has been tested in several recent<br />
examples. 32,33,34<br />
The use of crowdsourcing of commercial imagery analysis does come with one major concern<br />
identified above in the discussion of the use of commercial and scientific imagery, namely the<br />
quality of both the data and analysis. A vital part of any commercial imagery crowdsourcing<br />
process has to be a thorough “quality assurance” process. There have already been major<br />
analytical errors made by untrained imagery analysts who have published openly.<br />
A recent article in the Washington Post about work done by Georgetown University students<br />
analyzing the network of tunnels in China to hide their missile and nuclear arsenal is a good<br />
32 DARPA Red Balloon Challenge (http://archive.darpa.mil/networkchallenge/)<br />
33 M. Fisher, “Google Maps Reveals Exact Site of North Korea’s Nuclear Test, Plus Nearby Test Facility and Gulag,”<br />
Washington Post, February 12, 2013<br />
34 C. Hansell, Cristina; William C. Potter; “Engaging China and Russia on Nuclear Disarmament,” Monterey Institute<br />
of International Studies, April 2009<br />
DSB TASK FORCE REPORT Chapter 5: Improve the Tools: Access, Sense, Assess | 61<br />
Nuclear Treaty Monitoring Verification Technologies<br />
UNCLASSIFIED