SARBayes
23 April 2010, 16:54 UTCCOINSS: Castle's Thesis
Some details on Castle's 1998 thesis, and links so people can find it. Updated 2010-05-02
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23 April 2010, 0:36 UTCBayesian motion models of LPB
Lin & Goodrich at Brigham Young are working on Bayesian
motion models for generating probability maps. They have an
interesting model, but need GPS tracks to train it. It's a nice
complement to our approach, and it will be interesting to see how they compare.
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19 November 2009, 0:29 UTCTwin Engine Quip
From a list of pilot quotes:
"When one engine fails on a twin-engine airplane, you always have enough power left to get you to the scene of the crash."
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31 May 2009, 9:53 UTCAMDR & ESW II
30 January 2009, 1:44 UTC99% of those found alive...
5 July 2008, 0:27 UTCAMDR & ESW
23 June 2008, 19:08 UTCProbabilty Mapper README
9 June 2008, 18:10 UTCAutomated Image Segmentation
5 June 2008, 19:47 UTCESRI SAR Articles
8 May 2008, 1:56 UTCMore wireframes
16 February 2008, 11:52 UTCSpreading probability around
18 November 2007, 0:19 UTCInteresting Papers on GIS
2 November 2007, 2:59 UTCSAR Spotlight Forum
22 September 2007, 0:25 UTCRe-Post: Comments on O'Connor
14 September 2007, 13:48 UTCBlog links, MTurk
28 June 2007, 10:52 UTCACFR & Nuit Blanche
25 April 2007, 2:24 UTCRabbit on Search Management
2 April 2007, 20:31 UTCLandmine probability maps
2 April 2007, 10:20 UTCSyrotuck's Data

Estimating the Probability of Landmine Contamination. LTC Stephen R. Riese, Donald E. Brown and Yacov Y. Haimes. Military Operations Research 11:3, 2006.
This paper creates landmine probability maps almost precisely in the way that I have wanted to create lost person behavior probability maps. (I'll add some more notes on it later. NOTE: now shows the image. Text slightly revised to suit.)
This paper introduces a new approach to forecasting landmine contamination in war-torn areas. The Probability of Mine (PoM) forecast incorporates information not used in traditional predictive pattern analysis, and provides more accurate estimates to support decision-making in the allocation of scarce demining resources, relocation of refugees, or planning of peacekeeping operations. That new information is spatial feature data that helps drive human behavior, in this case the choice of where to place landmines. Data gathered by the U.S. Army in Bosnia in 1995 and 1996 provides real world data to test and evaluate the model. The PoM forecast is built upon an empirical Bayesian prediction model that uses examples of areas known to be mined, examples of areas known to be free of mines, feature data (e.g., location of roads, vegetation, fighting lines), and an initial estimate of the overall mine density within the region. Results demonstrate that the PoM model is able to make accurate probabilistic forecasts on the presence of landmines, as well as provide measures of forecast quality that address both the model’s ability to account for uncertainty and the model’s predictive power.