Shannon L. Bartelt-Hunt

Shannon L. Bartelt-Hunt


Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 April 2011 in Journal of Contaminant Hydrology
Verified
Journal Article
Closed access
Shannon L. Bartelt-HuntShannon L. Bartelt-Hunt
Shannon L. Bartelt-Hunt
Daniel D SnowDaniel D Snow
Daniel D Snow
TDTeyona Damon-Powell
Teyona Damon-Powell
DMDavid Miesbach
David Miesbach

27 October 2015 in PLOS ONE
Verified
Journal Article
Open access
PDF file
HPHanh T. M. Phan
Hanh T. M. Phan
Shannon L. Bartelt-HuntShannon L. Bartelt-Hunt
Shannon L. Bartelt-Hunt
KRKeith B. Rodenhausen
Keith B. Rodenhausen
MSMathias Schubert
Mathias Schubert
JBJason Bartz
Jason Bartz
Understanding protein adsorption kinetics to surfaces is of importance for various environmental and biomedical applications. Adsorption of bovine serum albumin to various self-assembled monolayer surfaces including neutral and charged hydrophilic and hydrophobic surfaces was investigated using in-situ combinatorial quartz crystal microbalance with dissipation and spectroscopic ellipsometry. Adsorption of bovine serum albumin varied as a function of surface properties, bovine serum albumin concentration and pH value. Charged surfaces exhibited a greater quantity of bovine serum albumin adsorption, a larger bovine serum albumin layer thickness, and increased density of bovine serum albumin protein compared to neutral surfaces at neutral pH value. The quantity of adsorbed bovine serum albumin protein increased with increasing bovine serum albumin concentration. After equilibrium sorption was reached at pH 7.0, desorption of bovine serum albumin occurred when pH was lowered to 2.0, which is below the isoelectric point of bovine serum albumin. Our data provide further evidence that combinatorial quartz crystal microbalance with dissipation and spectroscopic ellipsometry is a sensitive analytical tool to evaluate attachment and detachment of adsorbed proteins in systems with environmental implications.

3 January 2012 in Environmental Science & Technology
Verified
Journal Article
Closed access
Shannon L. Bartelt-HuntShannon L. Bartelt-Hunt
Shannon L. Bartelt-Hunt
Daniel D SnowDaniel D Snow
Daniel D Snow
WKWilliam L. Kranz
William L. Kranz
TMTerry L. Mader
Terry L. Mader
CSCharles A. Shapiro
Charles A. Shapiro
TZTian C. Zhang
Tian C. Zhang

4 March 2011 in Environmental Toxicology and Chemistry
Verified
Journal Article
Closed access
PDF file
Shannon L. Bartelt-HuntShannon L. Bartelt-Hunt
Shannon L. Bartelt-Hunt
Daniel D SnowDaniel D Snow
Daniel D Snow
TDTeyona Damon-Powell
Teyona Damon-Powell
DBDelShawn L. Brown
DelShawn L. Brown
GPGyanendra Prasai
Gyanendra Prasai
AKAlan S. Kolok
Alan S. Kolok

20 February 2023 in Communications Earth & Environment
Verified
Journal Article
Open access
PDF file
NBNasrin Naderi Beni
Nasrin Naderi Beni
SKShahab Karimifard
Shahab Karimifard
JGJohn Gilley
John Gilley
TMTiffany Messer
Tiffany Messer
ASAmy Schmidt
Amy Schmidt
Shannon L. Bartelt-HuntShannon L. Bartelt-Hunt
Shannon L. Bartelt-Hunt
Land-applied municipal biosolids, produced from municipal wastewater treatment sludge, contributes to microplastics contamination in agroecosystems. The impacts of biosolids on microplastic concentrations in agricultural soil have been previously investigated, however, the potential for microplastics transport from biosolid-amended croplands has not been previously quantified. In this study, manure and biosolids were applied to field plots, runoff was collected following natural precipitation events and the potential of bacterial biofilm to grow on different microplastic morphologies was investigated. Higher concentrations of microplastics were detected in runoff from plots with land-applied biosolid in comparison with manure-amended and control plots. Fibers and fragments were the most frequently detected plastic morphologies in runoff, correlated with their decreased surface roughness. The potential of biosolids to contribute to microplastic contamination to U.S. surface waters was quantified which is among the first to quantify the potential for nonpoint source microplastic contamination of surface waters adjacent to agricultural production areas.

1 May 2014 in Science of The Total Environment
Verified
Journal Article
Closed access
SJStacey R. Joy
Stacey R. Joy
XLXu Li
Xu Li
Daniel D SnowDaniel D Snow
Daniel D Snow
JGJohn E. Gilley
John E. Gilley
BWBryan Woodbury
Bryan Woodbury
Shannon L. Bartelt-HuntShannon L. Bartelt-Hunt
Shannon L. Bartelt-Hunt