Sentence examples for maximum expected ash from inspiring English sources

VAPAH also calculates the maximum expected ash load at a given site for timeframes of interest.

All other sources contributed less than 5%% to the maximum expected ash load for this site for this timeframe.

It's important to clarify that a 1-in-100 1-in-100 1-in-100ot suggest that the maximum expected ash load for a site will occur regularlyearevent00 years, or only once in 100 years but rather, given any 100 year periodoeshe maximum expected ash load for a particular site may occur onot, twice, more, or not at all.

By aggregating the hazard calculations for each site, hazard maps can be generated which display the maximum expected ash load (kg/m2) at each site across the region for a timeframe of interest (e.g. 1-in-100 1-in-100 1-in-10010).

The algorithm will then calculates the cumulative probability of each event (e.g. each instance where a volcanic ash load was recorded from one or more sources) for the first site and generates a hazard curve of volcanic ash load (kg/m2) versus annual probability of exceedance and the maximum expected ash hazard for timeframes of interest (specified by the user in the configuration file).

Hazard calculations were aggregated for each site and maps were generated which display the maximum expected ash hazard (kg/m2) at each site across the Asia-Pacific at the 100-, 1000- and 10,000-year timeframes (e.g. 1-in-100 1-in-100 1-in-1005).

A map of maximum expected volcanic ash load on a 1-km grid for the Philippines is presented for a 1-in-1000 year event in Fig. 6.

A map of maximum expected volcanic ash load on a 1-km grid for Papua New Guinea is presented for a 1-in-1000 year event in Fig. 6.

A map of maximum expected volcanic ash load on a 1-km grid for Indonesia is presented here for a 1-in-1000 year event in Fig. 6.

Additional sources contributed 5 10%% of the total expected ash load for this timeframe (Fig. 10).

The expected ash load increased to ~688 kg/m2 at the 10,000-year timeframe.