Tool Descriptions
Direct Sensing Tools
Borehole Geophysics Tools
Surface Geophysics Tools
Remote Sensing Tools
- Home
- About ITRC
- Navigating this Website
- 1 Introduction
- 2 ASCT Implementation
- 3 Direct Sensing
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- 3 Direct Sensing Overview
- 3.1 How to Select and Apply Direct Sensing Tools Using this Document
- 3.2 Membrane Interface Probe
- 3.3 Optical Image Profiler
- 3.4 Laser-Induced Fluorescence
- 3.5 Cone Penetrometer Testing
- 3.6 Hydraulic and Groundwater Profiling Tools
- 3.7 Electrical Conductivity (EC) Probe
- 3.8 Flexible Liners
- 4 Borehole Geophysics
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- 4 Borehole Geophysics Overview
- 4.1 How to Select and Apply Borehole Geophysical Tools Using this Document
- 4.2 Fluid Temperature
- 4.3 Fluid Resistivity
- 4.4 Mechanical Caliper
- 4.5 Optical Televiewer
- 4.6 Acoustic Televiewer
- 4.7 Natural Gamma Logging
- 4.8 Borehole Flow Meters
- 4.9 Advanced Borehole Logging Tools
- 5 Surface Geophysics
- 6 Remote Sensing
- 7 Stakeholder and Tribal Perspectives
- 8 Regulatory Perspective
- 9 Case Studies
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- 9 Case Studies Overview
- 9.1 MIP Boring Data Allow On-Site Decisions to Fill Data Gaps and Reduce Uncertainty during Triad Approach Evaluation at Five South Dakota Sites
- 9.2 MIP Allows Real-Time Identification and Delineation of DNAPL Plume at a Former Naval Air Station in California
- 9.3 OIP-Green Probe Delineates Extent of Coal Tar NAPL at a Former Gas Manufacturing Plant in Kansas
- 9.4 LIF Survey with UOVOST® Provides More Accurate Representation of LNAPL Plume at a Former Bulk Petroleum Storage Facility in New Hampshire
- 9.5 UVOST Differentiates LNAPL Types to Allocate Financial Liabilities at a Retail Petroleum Facility in Tennessee
- 9.6 TarGOST Determines DNAPL Extent and HPT Confirms Site Lithology at a Former Creosote Facility in Louisiana
- 9.7 CPT Borings and Hydropunch Sampler Optimize Site Characterization at an Aviation Industrial Complex in California
- 9.8 Waterloo APS, CPT, and LIF Data Update CSM and Help Optimize Selected Remedy at a Former Refinery in Oklahoma
- 9.9 Conceptual Site Model Development Using Borehole Geophysics at the Savage Municipal Water Supply Superfund Site in New Hampshire
- 9.10 ERI Provides Data to Improve Groundwater Flow and Contaminant Transport Models at Hanford 300 Facility in Washington
- 9.11 Surface and Borehole Geophysical Technologies Provide Data to Pinpoint and Characterize Karst Features at a Former Retail Petroleum Facility in Kentucky
- 9.12 GPR Data Show Location of Buried Debris and Piping Associated with a Former Gas Holder in Minnesota
- 9.13 Resistivity, Seismic Exploration, and GPR Provide Data to Evaluate Clay Reserves at a Commercially Mined Pit
- 9.14 Seismic Refraction, Electric Resistivity, and Multichannel Analysis of Seismic Waves Provide Data to Locate Monitoring Well Locations in a Mixed-Use Area in Northern Virginia
- 9.15 Surface Geophysical Methods Provide Data to Identify Prospective Utility Waste Landfill Sites in Karst Terrain in Missouri
- 9.16 Airborne Time-Domain Electromagnetic Method Maps Sand Distribution along the Illinois Lake Michigan Shore
- 9.17 Drone Technology Expedites and Streamlines Site Characterization at a Former Golf Course in Missouri
- 9.18 High-Resolution and Thermal Aerial Images Identify Mine Openings at an Abandoned Colorado Mine
- 9.19 RPAS Collects Water Samples to Avoid Safety Concerns at Montana Tunnels Mine
- Additional Information
- Document Feedback
- ITRC & Environmental Justice/Diversity Equity & Inclusion
ASCT-1
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