Brant A. Smith P.E., Ph.D. Remediation Technologies (RemTech) Symposium Banff, Alberta October 14, 2015

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Application of Alkaline Activated Persulfate to Treat Petroleum Hydrocarbon Contamination Beneath the Active Construciton of a 32-Story High-Rise Residential Tower Brant A. Smith P.E., Ph.D. Remediation Technologies (RemTech) Symposium Banff, Alberta October 14, 2015

ALKALINE ACTIVATED PERSULFATE

Introduction to Klozur Persulfate Klozur Persulfate is: Based on the sodium persulfate molecule A strong oxidant used for the destruction of contaminants in soil and groundwater Aggressive and fast acting chemistry with extended subsurface lifetime (weeks to months) and little to no heat or gas evolution Applicable across a broad range of organic contaminants Highly soluble in water (significant oxidant mass is smaller volumes) Field solubility of more than 500 g/l possible 3

Fundamental Chemistry Klozur Activated Persulfate is based upon the persulfate anion: Persulfate is a peroxygen, and similar to hydrogen peroxide, it can be split at the O-O bond forming the sulfate radical: - O 3 S-O-O-SO 3- - O 3 S-O O-SO 3-4

October 22, 2015 Alkaline Activation: Chemistry Sodium persulfate is activated when the solution is raised to ph > 10.5 Alkaline Activation-simple version: ph >10.5 S 2 O 8 2-2SO 4 Alkaline Activation-complex version (Furman et al., 2010): S 2 O 8 2- + 2H 2 O HO 2- + 2SO 4 2- + 3 H + HO 2- + S 2 O 8 2- SO 4 - + SO 4 2- + H + + O 2 - SO 4 - + OH - OH + SO 4 2- (note: H 2 O 2 HO 2- + H + pk a = 11.7) Complex version of the reaction results in the transient oxygen species of SO 4 -, OH, O 2 -, and HO 2 - Analogous to the chemistry that has been studied with catalyzed hydrogen peroxide (CHP) OH - 5

SITE BACKGROUND

Background Located in the Chelsea neighborhood of New York City. Site uses included lumber yard, metal works facility, auto-repair facility, coal yard, piano manufacture, livery car service, and gasoline station. Leaking underground storage tanks observed at site. 7

Target Area Approximately 6,500 ft 2 (185 ft x 35 ft). Treatment Interval of 9 to 14 ft bgs. Sandy and silty-sandy material. 8

Contaminants of Concern Average Concentration of Petroleum Hydrocarbons: 3,000 mg/l BTEX 140 mg/l Naphthalene 1,400 mg/kg GRO + DRO DRO and GRO up to 3,760 and 4,180 mg/kg, respectively. Variable GRO to DRO distribution indicated possible multiple releases. 9

Bench-Scale Tests Evaluated catalyzed hydrogen peroxide (CHP) and alkaline activated persulfate (AAP). CHP eliminated as peroxide decomposed rapidly even with stabilizing reagents, likely limiting subsurface distribution and resulting in rapid release of gas. Alkaline activated persulfate selected for effectiveness and chemical compatibility. Reduced BTEX by 64-77%. Reduced total TPH by 50%, with 50% percent of persulfate mass remaining. 10

FIELD APPLICATION

Field Application Design Designed based on multiple applications with emphasis on achieving remedial goals in single application. Injection wells installed to be accessible upon completion. Design called for 100,000 to 180,000 lbs of persulfate. 72,700 lbs in first application 60,300 lbs of 50% sodium hydroxide Approximately 35,000 gallons of reagent solution (250 g/l persulfate) Design incorporated the RemMetrik process utilizing Wavefront technology. 12

W. 28 TH ST. Field Application Logistics Difficult spatial constraints from construction activities Temporarily closed lane of W. 28 th St. each day for batching. Road was open during injection. Over 400 daily construction personnel Total access window of 9 days. WELL FIELD MIXING & DIST. SKID CHEMICAL BATCHING & STORAGE 13

Batching 14

Mixing and Distribution Areas 15

Well Field 16

Field Application Occurred May 7 to 17, 2013 Performed by XDD in cooperation with ZEBRA Environmental and Fleming-Lee Shue. 72,372 lbs of alkaline activated Klozur persulfate injected in 35,432 gallons of solution. Completed on schedule and within budget, with no impact to construction activities. 17

Groundwater Results Monitoring conducted approximately 5 months after the application in three quarterly events. BTEX and naphthalene GW concentrations decreased by 92 to 95%. Rebound was Not Observed 18

Soil Results Soil sampled approximately 5 months after the application. BTEX concentrations reduced by 99.9%. DRO/GRO Soil Concentrations were reduced by an Average of 99.2 percent 19

Conclusions Single application of alkaline activated persulfate effectively treated BTEX, DRO and GRO Up to 4,000 mg/kg DRO and GRO No rebound observed after 3 quarterly monitoring events. Site closed by NY-DEC 20

Questions Brant Smith, P.E., Ph.D Brant.Smith@peroxychem.com 21