High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis William M. Davis, Christopher P. Antworth and Christopher.

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High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis William M. Davis, Christopher P. Antworth and Christopher A. Horrell Triad Environmental Solutions, Inc International Petroleum Environmental Conference Denver, CO November 19, 2015

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Brief history of 1,4 Dioxane use Why be concerned about 1,4 Dioxane Current regulatory environment Available methods for Soil and GW analysis Field analysis of 1,4 Dioxane using US EPA Method 8265 Method Development and Validation Brief case study using on-site 1,4 Dioxane analysis Conclusions

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Brief History of 1,4 Dioxane and Its Us e Cyclic ether, stable, totally miscible with water Identified in 1863, used primarily as a solvent from the 1920s to 1950s – Used as a stabilizer for methyl chloroform (1,1,1 trichloro ethane, TCA) which would otherwise breakdown when exposed to metals (Al, Fe, Zn) particularly AlCl 3 As much as 5 wt% in TCA Also used in some paint strippers, varnishes waxes and in cosmetics, deodorants and food additives

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Why be concerned about 1,4 Dioxane Over 600,000 tons 1,1,1 TCA used at over 6000 Facilities California Public Water Supply survey found 171 out of 1244 sampled active or standby drinking water supply wells containing 1,4 Dioxane, 168 of these > 1 ug/L (CA Notification Level) USEPA (2009) added 1,4 Dioxane to the Unregulated Contaminant List an indication that it may need to establish a MCL Drinking water suppliers are testing for 1,4 Dioxane under USEPA Unregulated Contaminants Monitoring Program US EPA Health Advisory Level of 0.35 ug/L Some states have already set Target Cleanup Levels for GW Bottom Line: Many closed TCA site are being re-investigated for 1,4 Dioxane

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Current Regulatory Environment US Air Force 2008 AFCEE report listed 18 states and 3 US EPA Regions with Advisory, Guidance or Target levels for drinking water and GW Many states in the AFCEE report also had soil cleanup and soil threat to GW levels State levels for drinking water and GW from 0.35 to 16 ug/L US EPA IRIS 0.35 ug/L cancer risk (2013) US EPA Drinking Water Screening Level at 0.67 ug/L (2013) Ann Arbor, MI plume > 3 miles long

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Available Methods for Soil and GW Analysis of 1,4 Dioxane MATRIXMETHODINSTRUMENTATIONLOD Soil, Water EPA SW 846 Method 8015 GC/FID15 µg/L (MDL) Soil, Water EPA SW 846 Method 8240 GC/MS Purge and trap or direct injection Soil, Water EPA SW 846 Method 8260 GC/MS w/ Heated headspace 2.5 µg/L (MDL) Soil, Water EPA SW 846 Method 8260 SIM GC/MS-SIM µg/L (MDL) Soil, Water, Tissue EPA SW 846 Method 8261 VD/GC/MS1.1 µg/L (MDL) Soil, Water EPA SW 846 Method 8270 GC/MS µg/L (MDL) Soil, Water EPA SW 846 Method 8270 SIM GC/MS-SIM WaterEPA Method 1624ID GC/MS WaterEPA Method 522SPE, GC/MS-SIM µg/L (DL) Soil, WaterEPA Method 625GC/MS

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Field analysis of 1,4 Dioxane using US EPA Method 8265 DSITMS is the basis of US EPA Method 8265 No GC, 2-3 minute run times, purge/mass spectrometry for VOCs VOC analysis of GW, soil and vapor up to 80 client samples/day 1,4 Dioxane analysis up to 60 client samples per day with QC Rapid, accurate and precise Real-time QUANTITATIVE data to support real-time decisions in the field

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Field analysis of 1,4 Dioxane using US EPA Method 8265 Solid Phase Micro Extra ction Solid phase micro extraction (SPME) Contaminant extracted passively onto absorbent coated fiber Absorbed contaminant thermally desorbed into direct sampling ion trap mass spectrometer (DSITMS) 1,4 Dioxane identified by mass and quantified by DSITMS response

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Field analysis of 1,4 Dioxane using US EPA Method 8265 SPME extraction applicable to GW and soil extracted with water LODs of 2-5 µg/L for GW and µg/L for soil SPME extraction can be performed after VOC analysis on same sample Method based on Shirey and Linton (J. Chrom. Sci., Vol 44, , 2006)

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Field analysis of 1,4 Dioxane using US EPA Method ,4 Dioxane m/e µg/L standard 1,4 Dioxane m/e 88 TCE m/e DCE m/e ,1,1 TCA m/e Example DSITMS Response for Standards and Field Samples

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis y = 0.83x + 73, r 2 = 0.87 Initial GW Validation StudyAll GW Split samples to date 1,4 Dioxane SPME/DSITMS Method Validation Studies

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis 1,4 Dioxane SPME/DSITMS Method Validation Studies y =0.63x + 123, r 2 = 0.67 Soil samples collected co-located Remember: THERE IS NO SUCH THING AS A SOIL SPLIT SAMPLE w/o HOMGINIZING

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis 1,4 Dioxane SPME/DSITMS Method Validation Studies y =1.25x + 6.6, r 2 = 0.87 Removed heterogeneity for soil samples collected co-located Split extracts of soils between field analysis by SPME/ DISTMS and fixed lab heated head- space/EPA 8260

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Field analysis of 1,4 Dioxane using US EPA Method 8265 Methods development and validation indicate the SPME/DSITMS approach is capable of providing data to support real-time, on-site decision making This analysis has supported rapid, cost effective development of high resolution data sets Accurate, high resolution data sets allow project managers to develop accurate conceptual site models

High Resolution Site Characterization of 1,4 Dioxane Sites using a high resolution New On-site, Real-time Analysis Why you need 1,4 Dioxane data ZEBRA TECHNICAL SERVICES Hydraulic gradient Top of mountain to bottom Permeability Actual path Why measure permeability instead of gradient?

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Brief case study using on-site 1,4 Dioxane analysis SiteLocation 1,4 Dioxane VOC Field Days SoilGWSoilGW 1,4 DioxaneVOC 1CA MI CA107 2 Summary of Field Work To Date using SPME/DSITMS Analysis

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Brief case study using on-site 1,4 Dioxane analysis Site History: Former manufacturing facility Previous investigations identified 1,4 Dioxane plume ( > 1 mile) Source area identified but not yet characterized Objectives: Delineate 1,4 dioxane source area Further characterize chlorinated VOC source Approach: High resolution saturated soil sampling using two sonic drill rigs to approximately 100 ft BGS On-site 1,4 Dioxane and VOC analysis using EPA Method 8265

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Brief case study using on-site 1,4 Dioxane analysis On-site 1,4 Dioxane and VOC analysis using EPA Method 8265 Two DSITMS instruments with operators; one for 1,4 Dioxane and one for VOCs Predominantly saturated soil sampling with modified US EPA Method 5035 aqueous extraction VOCs and 1,4 Dioxane analyzed on single sample extract 831 soil (25 locations) and 9 GW 1,4 dioxane in 15.5 field days 549 soil (15 locations) and 9 GW VOC in 9 field days

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Brief case study using on-site 1,4 Dioxane analysis Investigation Findings Limited 1,4 Dioxane source mass remaining in perched zone – unlikely to leach No hotspots in deep overburden Footprint of source area plume smaller than original estimate Significant costs savings realized using on-site 1,4 Dioxane analysis Real-time data allowed dynamic work strategy to locate sampling points On-site 1,4 Dioxane analysis saved enough compared to two week off-site analytical costs to pay for the sonic drilling program (> $125K)

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Conclusions Regulatory enforcement at sites with 1,4 Dioxane contamination underway at many sites and is immanent at many others Experience with other contaminants (VOCS, MTBE and others) supports the collection of high resolution data High resolution CSMs greatly increase the success of and reduce the costs of site remediation A cost effective on-site analysis is now available to provide high resolution CSMs for 1,4 Dioxane contamination in soil and GW

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis Questions

High Resolution Site Characterization of 1,4 Dioxane Sites using a New On-site, Real-time Analysis