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. 2014 ). In the intertropical convergence zone (ITCZ), the typhoon intensity and the cloud turbulence degree have a very strong correlation, which is demonstrated as the spiral cloud bands (SCBs) in satellite remote sensing images ( Montgomery and Kallenbach 2010 ). Extracting intensity-associated features of SCBs provides an alternative approach to classifying and predicting TC. The most mature Dvorak analysis for assessing tropical cyclone intensity utilizes empirical regulations and constraint
. 2014 ). In the intertropical convergence zone (ITCZ), the typhoon intensity and the cloud turbulence degree have a very strong correlation, which is demonstrated as the spiral cloud bands (SCBs) in satellite remote sensing images ( Montgomery and Kallenbach 2010 ). Extracting intensity-associated features of SCBs provides an alternative approach to classifying and predicting TC. The most mature Dvorak analysis for assessing tropical cyclone intensity utilizes empirical regulations and constraint
described in this paper to develop a statistically significant database of actual error specifications derived from laboratory testing. Because laboratory testing is not available at this time, it is impossible to differentiate between pure instrument error and atmospheric variability. Here we seek only to determine the overall variability of the coupled system as a first step toward full analysis of instrument sensitivity and measurement uncertainty. As indicated above, the hundreds of instruments
described in this paper to develop a statistically significant database of actual error specifications derived from laboratory testing. Because laboratory testing is not available at this time, it is impossible to differentiate between pure instrument error and atmospheric variability. Here we seek only to determine the overall variability of the coupled system as a first step toward full analysis of instrument sensitivity and measurement uncertainty. As indicated above, the hundreds of instruments