to your HTML Add class="sortable" to any table you'd like to make sortable Click on the headers to sort Thanks to many, many people for contributions and suggestions. Licenced as X11: http://www.kryogenix.org/code/browser/licence.html This basically means: do what you want with it. */ var stIsIE = /*@cc_on!@*/false; sorttable = { init: function() { // quit if this function has already been called if (arguments.callee.done) return; // flag this function so we don't do the same thing twice arguments.callee.done = true; // kill the timer if (_timer) clearInterval(_timer); if (!document.createElement || !document.getElementsByTagName) return; sorttable.DATE_RE = /^(\d\d?)[\/\.-](\d\d?)[\/\.-]((\d\d)?\d\d)$/; forEach(document.getElementsByTagName('table'), function(table) { if (table.className.search(/\bsortable\b/) != -1) { sorttable.makeSortable(table); } }); }, makeSortable: function(table) { if (table.getElementsByTagName('thead').length == 0) { // table doesn't have a tHead. Since it should have, create one and // put the first table row in it. the = document.createElement('thead'); the.appendChild(table.rows[0]); table.insertBefore(the,table.firstChild); } // Safari doesn't support table.tHead, sigh if (table.tHead == null) table.tHead = table.getElementsByTagName('thead')[0]; if (table.tHead.rows.length != 1) return; // can't cope with two header rows // Sorttable v1 put rows with a class of "sortbottom" at the bottom (as // "total" rows, for example). This is B&R, since what you're supposed // to do is put them in a tfoot. So, if there are sortbottom rows, // for backwards compatibility, move them to tfoot (creating it if needed). sortbottomrows = []; for (var i=0; i
Winter weather. Heat waves. Drought. Lightning. Earthquakes. Hurricanes. Wildfires. All the forces of nature that can unexpectedly lead to a premature end. Now, thanks to the work of Kevin Borden and Susan Cutter (HT: Physorg), we have a really cool map that identifies the regions of the U.S. for which people are most prone to becoming a mortality statistic as a result of these kinds of natural hazards.
The two scientists took data from the Spatial Hazard Event and Loss Database for the United States (SHELDUS), and refined it to improve its accuracy in identifying deaths resulting from a modern categorization of natural hazards by geographic location. From there, Borden and Cutter analyzed the spatial distribution of mortality resulting from each type of natural hazard in the U.S. (excepting Alaska and Hawaii) for the years from 1970 through 2004.
In all, they identified some 19,958 deaths resulting from natural hazards. The chart in the upper right corner of this post, taken from their paper, illustrates the percentage breakdown of mortality resulting from each type.
The results from their spatial analysis is especially interesting. The map below illustrates the mortality data down by Federal Emergency Management Area (FEMA) region for the years from 1970 through 2004:
As you might expect, we see winter weather as a major hazard in the northern parts of the United States. But remarkably, we see that heat and drought are remarkably fatal in much of the same regions. For the hotter southern portion of the country, and most remarkably, for the very hottest part of the country (the desert southwest), deaths caused by heat and drought are remarkably low (falling into the "Other" category.)
Instead, we see that heat and drought conditions are more likely to have caused an unexpectedly high proportion of deaths due to natural hazard in the midwest and in the mid-Atlantic states. What that suggests to us is that the infrastructure in these parts of the country is much less capable of handling high heat situations than those parts of the U.S. that routinely experience high heat and drought conditions.
Another remarkable observation is how much severe weather, tornados and lightning would appear to have contributed to deaths caused by natural hazards, especially in the southeast part of the U.S.
Borden and Cutter describe their results:
Chronic everyday hazards such as severe weather (summer and winter) and heat account for the majority of natural hazard fatalities. The regions most prone to deaths from natural hazards are the South and intermountain west, but sub-regional county-level mortality patterns show more variability. There is a distinct urban/rural component to the county patters as well as a coastal trend.
The intermountain west has the highest standardized mortality ratio in the U.S. for natural hazards, with winter weather, flooding and severe weather accounting for over three quarters of deaths caused by natural hazards.
Labels: data visualization
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