Crew prepares to bore under a tank at Hanford with Environmental Monitoring While Drilling (EMWD) Technology.
(TechID 8)

A series of 2-D, horizontal tomographs showing decreases in soil electrical resistivity below a metal tank (200 East area Hanford).
(TechID 17)

LIBS Metal Emissions Monitor installed on the Toxic Substances Control Act Incinerator (TSCAI) at Oak Ridge, Tennessee.
(TechID 18)

Direct sampling ion trap mass spectrometry (DSITMS) analyses are typically completed in less than five minutes.
(TechID 69)

The BetaScint^TM surface/soil monitor quantifies U-238 or Sr-90
(TechID 70)

Sequence of membrane and detector deployment with the Pipe Explorer^TM system
(TechID 74)

Expedited site characterization (ESC) can result in favorable economic consequences
(TechID 77)

In situ Permeable Flow Sensor measures direction and magnitude of groundwater flow.
(TechID 99)

HaloSnif monitored CCl₄ vapor in the Vadose Zone at Hanford
(TechID 103)

LA/MS measures isotopic constituents in tank waste samples; installed in primary Fume Hood of 222-S Hot Cell Facility at Hanford
(TechID 127)

X-ray, K-edge nondestructively quantifies uranium, plutonium, mercury, and other heavy metals inside sealed containers or processing equipment. System provided real-time, documented record of U inside large ducts at SRS 321-M Fuel Fabrication Facility.
(TechID 134)

Electrical Resistance Tomography (ERT) maps liquids migrating through soil at 200 E/105A Mock Tank Leak Test Site at Hanford.
(TechID 140)

Time Domain Reflectrometry (TDR) system measuring moisture content is combined with a fiber-optic probe for measuring pore pressure near the tip of a cone penetrometer (CPT)
(TechID 141)

Waste Inspection Tomography (WIT) images a steel pipe overpack in a 55-gal. drum from RFETS. The pipe contains three “coffee” cans; one is empty, one contains plastic bags, and one contains three aluminum plates. Because of the thick walled steel pipe, RTR would have imaging difficulties with this drum.
(TechID 259)

zNose^TM vapor detector and analyzer identifies vapors as low as part per trillion concentrations and amounts less tan 50 picograms
(TechID 282)

Long-term, Post-closure Radiation Monitoring System (LPRMS) is based on gamma detection and is capable of monitoring to depths of 50 meters below ground level.
(TechID 288)

Geophysical data fusion for subsurface imaging
(TechID 290)

Cone Permeameter^TM field system collects the flow rate and pressure profiles, then it calculates the inferred permeability in real time.
(TechID 307)

Field portable, autonomous SEAtrace^TM subsurface barrier validation system
(TechID 308)

Cone sipper groundwater sampling system for cone penetrometers
(TechID 381)

Assiciated Particles Imaging (API) nonintrusively interrogates sealed containers displaying locations, shapes, sizes and elemental compositions of contents.
(TechID 413)

Raman spectra measured at various depths with the fiber optic probe deployed in the cone penetrometer. Positive identification of PCE was achieved at 27.5 feet.
(TechID 873)

Rapid sampling using 3M membrane technology
(TechID 1514)

3M has developed particle-loaded membranes and fabricated them into cartridges. Captured radionuclides are immobilized on cartridges which can be easily handled and packaged for storage or further processing.
(TechID 1543)

Raman spectroscopy cone penetrometer (CPT) probe tested in a Hanford hot cell generated spectra for approximately 75% of the available inventoried tank waste samples. Results were compared to the wet chemistry analysis and the correlation evaluated by Lawrence Livermore Laboratory.
(TechID 1544)

Long Range Alpha Detector (LRAD) adaped to monitoring UF₆ cylinders at Oak Ridge depleted uranium hexafluoride storage cylinder facilities.
(TechID 1560)

Mercury CEM using the Compact High Resolution Spectrometer (CHRS) during field test at EPA RTP rotary kiln incinerator simulator (RKIS), October 2001.
(TechID 1564)

In order to map the magnetic field of a site, the RGS uses an array of magnetometers integrated with a positioning system. The magnetic data and position are captured by a data logger in the field, then the size and depth of magnetic objects is mapped.
(TechID 1995)

Portable laser-induced fluorescence imaging (LIFI) for real-time uranium detection
(TechID 1999)

Fiber-optic Thermal Emission Spectrometer (TES) on-line, real-time monitor for measures the concentrations of americium and curium in a molten glass stream produced by the vitrification of tank waste at the Savannah River Site (SRS). The tripod-mounted light-collection head of the monitor (lower right) is aimed up at the beginning of the glowing molten-glass stream that is pouring from the Cylindrical Induction Melter into a pail of water.
(TechID 2004)

Raman spectrum of archived waste from SRS tank 43H (bottom) and the combined Raman/Electronic Noise (TechID: 1985) corrosion probe (top)
(TechID 2015)

Typical Advanced Tensiometer installation with solar powered data logger.
(TechID 2122)

Portable Hi-Purity Germanium Detectors for Delineating Contamination in Soils
(TechID 2157)

Wireline Cone Penetrometer system allows various tools to be placed at the tip of the rod depending on the time of information or sample desired. Tools can be swapped at any depth and different tools can be used for penetration or retraction.
(TechID 2222)

The Laser Induced Fluorescence (LIF) Probe can be deployed by cone penetrometer for real-time, depth discrete delineation of contaminants that fluoresce under ultraviolet illumination, such as petroleum oils and lubricants (POL) and co-contaminants in Dense Non-Aqueous Phase Liquids (DNAPLs).
(TechID 2237)

FLUTe^TM membrane; dark (red) marks indicate the presence of Dense Non-Aqueous Phase Liquids (DNAPLs) at that depth.
(TechID 2238)

Map showing location of estimated flow pathlines in the perched water zone
(TechID 2944)

The Membrane Interface Probe System (MIPS) is a Cone Penetrometer-deployed probe for the field screening of Volatile Organic Compounds (VOCs).
(TechID 2950)