Directed soil sampling based on geospatial measurements of apparent soil electrical conductivity (ECa) is a potential means of characterizing the spatial variability of any soil property that influences ECa including soil salinity, water content, texture, bulk density, organic matter, and cation exchange capacity.
This location underscores the potential challenges of characterizing anthrax burdens from mortality events.
The potential utility of characterizing lipid markers in the brain, with specific emphasis on disease mechanisms, will be discussed.
Among all the combinations that were analyzed and compared, only one was retained because of its potential for characterizing soil degradation and soil occupation.
We investigate the potential for characterizing spatial moments of subsurface solute plumes from surface-based electrical resistivity images produced within a Proper Orthogonal Decomposition (POD) inversion framework.
The results from tissue simulating phantoms and mice are compared to ex vivo measurements with an optical microscope demonstrating that PAM has a great deal of potential to characterize the degradation process of surgical sutures.
More generally, range changes as well as demographic responses to climate change may affect genetic variability within populations, and thus exploration of patterns of genetic structure represents a critical component of characterizing potential responses to changing environmental conditions.
With this backdrop, here we investigated the T. solium genome for protease genes to provide first foundation of characterizing some potential targets.
Here we confirm and quantify the toxic potential of fully characterized AgNPs in HeLa and A549 cells.
This contrasts the catalytic potential of well characterized BVMOs that were also tested with the panel of test compounds (Table 3).
