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  • Trace Arsenic Analysis
    Arsenic Speciation Analysis
    Arsenic Speciation in Rice
    Arsenic Speciation in Clams
    Arsenic Speciation in Algae
    Arsenic Speciatin in Kelp
    Arsenic Speciation in Milk
    Arsenic Speciation in Soil
    Arsenic Speciation in Plants
    Arsenic Speciation of FGD Influent
    Arsenic Speciation in Constructed Wetlands
    Arsenic Speciation in Agricultural Runoff
    Arsenic Speciation in Groundwater
    Arsenic Speciation in Lake and River Water
    Arsenic Speciation in Poultry Litter
    Arsenic Speciation in Blood Serum
    Arsenic Speciation in Urine
    Arsenic Speciation in Brain Matter
    Arsenic Speciation in Nutraceuticals
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  • Trace Selenium Analysis
    Selenium Speciation Analysis
    Selenium Speciation in FGD Wastewater
    Selenium Speciation in yeast
    Selenium Speciation of Fish eggs
    Selenium Speciation of Soil
    Selenium Speciation of Blood Serum
    Selenium Speciation of Urine
    Selenium Speciation of Agricultural Runoff
    Selenium Speciation of Oil Refinery Wastewater
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  • Trace Total Mercury Analysis
    Mercury Speciation of River Water
    Mercury Speciation of Lake Water
    Mercury Speciation of Soil
    Mercury Speciation of Tissue
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  • Hexavalent Chromium
    EPA Method 6800 (SIDMS)
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    Hexavalent Chromium in Sediments
    Hexavalent Chromium in Pharmaceuticals
    Hexavalent Chromium in Neutraceuticals
    Hexavalent Chromium in Fish
    Hexavalent Chromium in Cosmetics
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  • Thallium Speciation of Pond Water
    Thallium Speciation of Tissue
    Vanadium Speciation of Pond Water
    Manganese Speciation of Groundwater
    Metal Cyanide Speciation Analysis of Mine Runoff
    Total Cyanide Analysis of FGD Wastewater
    Available Cyanide Analysis of FGD Wastewater



 


 


Applied Speciation and Consulting applies ion chromatography inductively coupled plasma mass spectrometry (IC-ICP-MS) for trace bromate quantification (modified EPA Method 321.8).

Introduction: Due to the carcinogenic nature of bromate, the EPA has set the maximum contamination level (MCL) to 10 ug/L. Bromate is used in cleaning boilers, cosmetics, and food processing due to its oxidative nature; however, bromate is typically associated with drinking water and wastewater treatment. Wastewater and drinking water sources sometimes apply ozonation as a disinfectant to eliminate harmful bacteria. Unfortunately, the ubiquitous nature of bromine in water systems, especially associated with salt water intrusion, often results in the formation of bromate from the ozonation process. Wastewater and drinking water typically effect more end users than all other industries combined; therefore, the ability to provide trace detection limits for bromate is of paramount importance.

Methods: Promulgated EPA methods currently facilitate ion chromatography for bromine compound separation followed by detection using conductivity or UV. Although ion chromatography is more than adequate for separating different bromine species, conductivity and UV detectors allow for false positives and have limited detection limits (10 ug/L). Applied Speciation eliminates these limitations by coupling the detection power of ICP-MS with the separation power of ion chromatography.

Application of ICP-MS for bromate analysis typically results in 0.1 ug/L detection limits. With ICP-MS as the detector, other matrix constituents can not produce a signal that can be confused with bromate and most importantly, bromate is identified by its isotopic pattern eliminating the possibility of false positives.

As with any analytical method providing speciation data, the recovery and speciation conversion of non-target species must be monitored. Applied Speciation and Consulting applies strict quality assurance procedures to ensure that other compounds containing bromine do not produce false positives for bromate. Other bromine species are spiked into the sample matrix to monitor conversion which also provides auxiliary information regarding the equilibrium of the sample matrix.

As more treatment facilities apply ozonation the demand for trace bromate analysis is becoming more of an issue. Current promulgated methods do not provide adequate detection limits and quality assurance to provide representative results with a high confidence interval.

If you have any questions or would like a quotation, please feel free to email us at info@appliedspeciation.com or call (425) 483-3300.

Feel free to visit our website on a regular basis as we will be providing scientific discussions and useful links to save you time and money.

 

 

 

 

 

 

Applied Speciation and Consulting 2009