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PERMFILE101350
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PERMFILE101350
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Entry Properties
Last modified
8/24/2016 9:55:40 PM
Creation date
11/24/2007 7:48:53 AM
Metadata
Fields
Template:
DRMS Permit Index
Permit No
C1981008A
IBM Index Class Name
Permit File
Doc Date
3/25/2003
Section_Exhibit Name
NH2 Section 2.04.6 Geology Description
Media Type
D
Archive
Yes
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• Total Sulfur, NP, and ABP. The sulfur content of overburden and interburden is determined to <br />predict the acid -producing potential of this material. In conjunction with potential acidity, the <br />neutralization potential from alkaline carbonates, exchangeable bases, and weatherable silicates <br />is measured. Sulfur fractionation (i.e., pyritic, sulfate, and organic) analyses are generally <br />performed when potential acidity exceeds the neutralization potential and/or when the total sulfur <br />content is greater than 0.5 percent. Amore accurate determination of potential acidity is obtained <br />when only pyritic sulfur values are utilized (Sobek et al., 1987) After the potential acidity and the <br />neutralization potential are determined, an acid base balance is determined by subtracting the <br />potential acidity from the neutralization potential. An acid-base potential (ABP) balance indicates <br />whether acid or base producing elements are in the sample and to what degree (Smith et al., 1974). <br />This balance reveals whether the material will become acidic or basic after being blasted, spoiled, <br />and weathered. A positive ABP indicates the spoiled material will have an increase in pH when <br />basic elements (carbonates) become soluble during the induced weathering process. A negative <br />ABP indicates the spoiled material will have a decrease in pH when acid producing components <br />(pyrites and carbonic acid) become soluble during the induced weathering process. <br />Copper. Copper is important in root metabolism, ammonium and protein utilization, <br />• oxidation-reduction reactions, and enzyme activation (USDA, 1957). Copper deficiencies are <br />generally not a problem (Traynor, 1980). Naturally occurring excesses of extractable copper have <br />not been reported in the soil literature (Munshower, 1983). <br />Nickel. This is anon-essential (to plant and animal life) heavy metal that could induce plant toxicity <br />symptoms if present in excess quantities. Nickel toxicity problems are restricted to poorly drained, <br />very acid soils, soils derived from serpentine parent materials or soils that have been contaminated <br />near smelters (Traynor, 1980; Munshower, 1983; and Barth et al., 1981). Normal plant available <br />nickel concentrations in soil are slightly less than 2 ppm (Barth et al., 1981). <br />Zinc. Zinc is a necessary component of several enzyme systems which regulate various metabolic <br />activities within plants. Adequate zinc levels are essential far normal cell division, root growth, seed <br />production, protein metabolism, and auxin formation (Tiedemann and Lopez, 1982). For normal <br />growth, most plants generally require a minimum zinc concentration of 1 ppm while zinc related <br />toxicity occurs at about 70 ppm. The potential for zinc deficiency is increased by many factors <br />including but not limited to high pH, high lime rates, high phosphorous levels, and high <br />• Revised 27 Aug 2002 1$ <br />
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