ASCE 9780784408810 2007
$68.79
Zero-Valent Iron Reactive Materials for Hazardous Waste and Inorganics Removal
Published By | Publication Date | Number of Pages |
ASCE | 2007 | 360 |
This report provides up-to-date technical information and state-of-the-art research findings on the use of zero-valent iron reactive materials to remove contaminants frequently found in groundwater.
PDF Catalog
PDF Pages | PDF Title |
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8 | Table of Contents |
18 | Chapter 1 Introduction 1.1 Historical Development of Zero-Valent Iron for Hazardous Waste Removal |
19 | 1.2 Groundwater and Surface Water Standards |
22 | 1.3 Comparison of the Fe[sup(0)]-Based Permeable Reactive Barriers and Pump-and-Treat Systems in Hazardous Waste Removal |
23 | 1.4 References |
26 | Section I: Removals of Chlorinated Aliphatic Hydrocarbons and Hexavalent Chromium Using Zero-Valent Iron Chapter 2 Removals of Chlorinated Aliphatic Hydrocarbons by Fe[sup(0)]: Full-Scale PRB vs Column Study 2.1 Introduction |
29 | 2.2 Experimental Section |
33 | 2.3 Data Analysis |
36 | 2.4 Results and Discussion |
46 | 2.5 Conclusions |
47 | 2.6 References |
52 | Chapter 3 Zero-Valent Iron and Organo-Clay for Chromate Removal in the Presence of Trichloroethylene 3.1 Introduction |
53 | 3.2 Experimental Section |
56 | 3.3 Results and Discussion |
62 | 3.4 Conclusions 3.5 References |
64 | Chapter 4 Competitive Effects on the Dechlorination of Chlorinated Aliphatic Hydrocarbons by Zero-Valent Iron |
65 | 4.1 Introduction |
66 | 4.2 Materials and Methods |
69 | 4.3 Results and Discussion |
75 | 4.4 Conclusions 4.5 References |
78 | Chapter 5 Removal of Hexavalent Chromium from Groundwater Using Zero-Valent Iron Media 5.1 Introduction |
79 | 5.2 Removal Mechanisms |
80 | 5.3 Reaction Kinetics |
86 | 5.4 Other In Situ Cr(VI) Removal Methods |
87 | 5.5 Case Studies |
89 | 5.6 Conclusions |
90 | 5.7 References |
94 | Section II: Removals of Nitrate and Arsenic using Zero-valent Iron Chapter 6 Aqueous Nitrate Reduction by Zero-Valent Iron Powder 6.1 Introduction |
96 | 6.2 Experimental Section |
98 | 6.3 Results and Discussion |
109 | 6.4 Conclusions and Recommendations |
110 | 6.5 References |
112 | Chapter 7 Removal of Nitrate from Water by a Combination of Metallic Iron Reduction and Clinoptilolite Ion Exchange Process 7.1 Introduction |
115 | 7.2 Materials and Methods |
117 | 7.3 Results and Discussions |
124 | 7.4 Summary 7.5 References |
128 | Chapter 8 Utilization of Zero-Valent Iron for Arsenic Removal from Groundwater and Wastewater 8.1 Introduction |
131 | 8.2 Batch Tests with Non Mine-Impacted Waters |
138 | 8.3 Batch Test with Acid Mine Drainage |
139 | 8.4 Effects of Competing Inorganic Anions on Arsenic Removal by Zero-Valent Iron |
144 | 8.5 Column Tests and Field Applications |
148 | 8.6 Mechanisms of Arsenic Removal by Zero-Valent Iron |
157 | 8.7 Alternative Materials of Iron and Aluminum Oxides for Arsenic Removal |
158 | 8.8 Knowledge Gaps and Research Needs |
159 | 8.9 Conclusions |
160 | 8.10 References |
168 | Chapter 9 Removal of Arsenic from Groundwater—Mechanisms, Kinetics, Field/Pilot and Modeling Studies 9.1 Introduction |
171 | 9.2 Mechanism of Removal and Competing Ion Effects |
174 | 9.3 Field/Pilot Studies and Modeling |
180 | 9.4 Design Considerations |
181 | 9.5 Conclusions 9.6 References |
189 | Section III: Innovative Iron-based Reactive Materials Chapter 10 The Performance of Palladized Granular Iron: Enhancement and Deactivation |
190 | 10.1 Introduction |
191 | 10.2 Experimental Section |
193 | 10.3 Results and Discussion |
201 | 10.4 Conclusions |
202 | 10.5 References |
204 | Chapter 11 Nanoscale Bimetallic Pd/Fe Particles for Remediation of Halogenated Methanes 11.1 Introduction |
208 | 11.2 Experimental Section |
209 | 11.3 Results |
218 | 11.4 Discussion |
220 | 11.5 Conclusions 11.6 References |
223 | Chapter 12 Reduction by Bimetallic Reactive Materials Containing Zero-Valent Iron 12.1 Introduction |
224 | 12.2 Noble Metals as Reduction Catalysts |
226 | 12.3 Preparation of Bimetallic Reductants |
227 | 12.4 Reduction Reactions of Bimetallic Materials |
232 | 12.5 Factors Affecting Reaction of Bimetallic Reductants |
233 | 12.6 Deactivation of Bimetallic Reductants |
234 | 12.7 Nano-sized Bimetallic Reductants |
235 | 12.8 Conclusions 12.9 References |
241 | Section IV: Zero-Valent Iron Reactive Barrier: Configuration, Construction, Design Methodology, and Hydraulic Performance Chapter 13 Configuration and Construction of Zero-Valent Iron Reactive Barriers 13.1 Introduction |
242 | 13.2 Permeable Reactive Barrier Configurations |
246 | 13.3 Emplacement Techniques for Permeable Reactive Barriers |
252 | 13.4 Case Studies |
256 | 13.5 Summary 13.6 References |
260 | Chapter 14 Design Methodology for the Application of a Permeable Reactive Barrier for Groundwater Remediation 14.1 Introduction |
262 | 14.2 Preliminary Assessment |
264 | 14.3 Site Characterization 14.4 Reactive Media Selection |
267 | 14.5 Treatability Testing |
271 | 14.6 Hydrogeologic and Geochemical Modelings |
274 | 14.7 Monitoring Plan |
276 | 14.8 Permeable Reactive Barrier Economics |
278 | 14.9 Summary 14.10 References |
284 | Chapter 15 Hydraulic Issues Related to Granular Iron Permeable Reactive Barriers 15.1 Introduction |
285 | 15.2 Hydraulic Characteristics of Granular Iron and Impact on PRB Design |
288 | 15.3 Influence of Inadequate Characterization of Plume Hydrogeology on Hydraulic Performance |
289 | 15.4 Influence of Construction Methods on Hydraulic Performance |
292 | 15.5 Influence of Long-Term Geochemical Changes on Hydraulic Performance |
295 | 15.6 Summary 15.7 References |
299 | Chapter 16 Tracer Experiments in Zero-Valent Iron Permeable Reactive Barriers 16.1 Introduction |
302 | 16.2 Tracer Experiments in Laboratory Columns |
306 | 16.3 Tracer Experiments at PRB Sites |
317 | 16.4 Conclusions |
318 | 16.5 References |
326 | Chapter 17 Hydraulic Studies of Zero-Valent Iron in Permeable Reactive Barriers Using Tracer Experiment 17.1 Introduction |
328 | 17.2 Vapokon Site Description and Fe[sup(0)] PRB Emplacement |
329 | 17.3 Natural Gradient Tracer Experiment for the Hydraulic Performance Monitoring of the Fe[sup(0)] PRB at Vapokon Site |
341 | 17.4 Results and Discussion |
348 | 17.5 Conclusions |
349 | 17.6 References |
354 | Appendix |
356 | Subject Index A B C |
357 | D E F G |
358 | H I J L M N |
359 | O P R S |
360 | T U V W X Z |