James T Anderson

Dr. James T Anderson

Clemson University, Clemson, South Carolina, USA
orcid

Research Focus & Metrics

Academic Career Length

27Years (2000-Present)

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

Representative Publications

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7 November 2023 in Water
Verified
Journal Article
Open access
PDF file
Tarun Kumar ThakurTarun Kumar Thakur
Tarun Kumar Thakur
MBMahesh Prasad Barya
Mahesh Prasad Barya
JDJOYSTU DUTTA
JOYSTU DUTTA
PMPritam Mukherjee
Pritam Mukherjee
ATAnita Thakur
Anita Thakur
James T AndersonJames T Anderson
James T Anderson
Macrophytes have the potential to withstand pollutant-induced stress and can be used to clean contaminated water using phyto-extraction, phyto-degradation, phyto-filtration, phyto-stimulation, and phyto-volatilization technique(s). Phytoremediation through constructed wetlands (CWs) for eliminating inorganic and organic pollutants from household sewage and wastewater has attracted scientific attention. CWs are artificially engineered treatment systems that utilize natural cycles or processes involving soils, wetland vegetation, and plant and soil-associated microbial assemblages to remediate contaminated water and improve its quality. Herein, we present a detailed assessment of contaminant removal effectiveness in different CW systems, i.e., free-water surface or surface-flow constructed wetlands (FWSCWs/SFCWs), subsurface-flow constructed wetlands (SSFCWs), and hybrid constructed wetlands (HCWs). Several wetland floral species have been reported as potential phytoremediators, effectively reducing aquatic contamination through biodegrading, biotransforming, and bioaccumulating contaminants. Water hyacinth (Pontederia crassipes) is one of the most resistant macrophytes, capable of tolerating high nitrate (NO3−) and phosphate (PO42−) concentrations. Other aquatic weeds also effectively alleviate biological oxygen demand (BOD), chemical oxygen demand (COD), total dissolved solids (TDS), and pathogen levels and ameliorate the impact of different ionic forms of nitrogen (N), phosphorus (P), and trace elements (TEs). The review primarily focuses on using hydrophyte(s)-microbe(s) associations in different CWs as an essential phytoremediation tool for sustainable management of freshwater ecosystems, ecorestoration, and prospective resource recovery, favoring a circular bioeconomy (CBE).

18 February 2022 in Science
Verified
Journal Article
Closed access
VSVincent A. Slabe
Vincent A. Slabe
James T AndersonJames T Anderson
James T Anderson
BMBrian A. Millsap
Brian A. Millsap
JCJeffrey L. Cooper
Jeffrey L. Cooper
AHAlan R. Harmata
Alan R. Harmata
TKTodd E. Katzner
Todd E. Katzner
Lead poisoning occurs worldwide in populations of predatory birds, but exposure rates and population impacts are known only from regional studies. We evaluated the lead exposure of 1210 bald and golden eagles from 38 US states across North America, including 620 live eagles. We detected unexpectedly high frequencies of lead poisoning of eagles, both chronic (46 to 47% of bald and golden eagles, as measured in bone) and acute (27 to 33% of bald eagles and 7 to 35% of golden eagles, as measured in liver, blood, and feathers). Frequency of lead poisoning was influenced by age and, for bald eagles, by region and season. Continent-wide demographic modeling suggests that poisoning at this level suppresses population growth rates for bald eagles by 3.8% (95% confidence interval: 2.5%, 5.4%) and for golden eagles by 0.8% (0.7%, 0.9%). Lead poisoning is an underappreciated but important constraint on continent-wide populations of these iconic protected species.

15 July 2022 in Journal of Environmental Management
Verified
Journal Article
Closed access
WXWentong Xia
Wentong Xia
BZBin Zhu
Bin Zhu
SZShuanghu Zhang
Shuanghu Zhang
HLHan Liu
Han Liu
XQXiao Qu
Xiao Qu
YCYushun Chen
Yushun Chen

13 November 2014 in Forests
Verified
Journal Article
Open access
PDF file
HCHannah Clipp
Hannah Clipp
James T AndersonJames T Anderson
James T Anderson
Salamanders and riparian forests are intimately interconnected. Salamanders are integral to ecosystem functions, contributing to vertebrate biomass and complex food webs in riparian forests. In turn, these forests are critical ecosystems that perform many environmental services, facilitate high biodiversity and species richness, and provide habitat to salamander populations. Due to the global decline of amphibians, it is important to understand, as thoroughly and holistically as possible, the roles of environmental parameters and the impact of human activities on salamander abundance and diversity in riparian forests. To determine the population responses of salamanders to a variety of environmental factors and anthropogenic activities, we conducted a review of published literature that compared salamander abundance and diversity, and then summarized and synthesized the data into general patterns. We identify stream quality, leaf litter and woody debris, riparian buffer width, and soil characteristics as major environmental factors influencing salamander populations in riparian forests, describe and explain salamander responses to those factors, and discuss the effects of anthropogenic activities such as timber harvest, prescribed fires, urbanization, road construction, and habitat fragmentation. This review can assist land and natural resource managers in anticipating the consequences of human activities and preparing strategic conservation plans.


15 December 2011 in Wetlands
Verified
Journal Article
Closed access
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JPJonathan L. Pitchford
Jonathan L. Pitchford
CWChenjie Wu
Chenjie Wu
LLLianShin Lin
LianShin Lin
JPJ. Todd Petty
J. Todd Petty
RTRichard Thomas
Richard Thomas
James T AndersonJames T Anderson
James T Anderson