Eric R. Scott

Dr. Eric R. Scott


Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

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

Representative Publications

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15 January 2018 in Molecules
Verified
Journal Article
Open access
PDF file
Xin LiXin Li
Xin Li
JWJi-Peng Wei
Ji-Peng Wei
ESEric R. Scott
Eric R. Scott
LJLiu Jianwei
Liu Jianwei
SGShuai Guo
Shuai Guo
WHWen-Yan Han
Wen-Yan Han
The unprecedented early spring frost that appears as a cold stress adversely affects growth and productivity in tea (Camellia sinensis L.); therefore, it is indispensable to develop approaches to improve the cold tolerance of tea. Here, we investigated the effect of pretreatment with exogenous melatonin on the net photosynthetic rate, the maximum photochemical efficiency of PSII, chlorophyll content, lipid peroxidation, reactive oxygen species (ROS) accumulation, antioxidant potential, and redox homeostasis in leaves of tea plants following cold stress. Our results revealed that cold treatment induced oxidative stress by increasing ROS accumulation, which in turn affected the photosynthetic process in tea leaves. However, treatment with melatonin mitigated cold-induced reductions in photosynthetic capacity by reducing oxidative stress through enhanced antioxidant potential and redox homeostasis. This study provides strong evidence that melatonin could alleviate cold-induced adverse effects in tea plants.

1 January 2020
Verified
Journal Article
Open access
ESEduard Szöcs
Eduard Szöcs
TSTamás Stirling
Tamás Stirling
ESEric R. Scott
Eric R. Scott
ASAndreas Scharmüller
Andreas Scharmüller
RSRalf Schaefer
Ralf Schaefer
Webchem: An R Package to Retrieve Chemical Information from the Web

1 October 2018 in Food Chemistry
Verified
Journal Article
Closed access
NKNicole Kfoury
Nicole Kfoury
JMJoshua Morimoto
Joshua Morimoto
AKAmanda Kern
Amanda Kern
ESEric R. Scott
Eric R. Scott
COColin Mark Orians
Colin Mark Orians
albert robbatalbert robbat
albert robbat

21 April 2023 in Methods in Ecology and Evolution
Verified
Journal Article
Open access
PBPedro Henrique Pereira Braga
Pedro Henrique Pereira Braga
KHKatherine Hébert
Katherine Hébert
EHEmma J. Hudgins
Emma J. Hudgins
ESEric R. Scott
Eric R. Scott
BEBrandon P. M. Edwards
Brandon P. M. Edwards
RCRobert Crystal‐Ornelas
Robert Crystal‐Ornelas
Researchers in ecology and evolutionary biology are increasingly dependent on computational code to conduct research. Hence, the use of efficient methods to share, reproduce, and collaborate on code as well as document research is fundamental. GitHub is an online, cloud‐based service that can help researchers track, organize, discuss, share, and collaborate on software and other materials related to research production, including data, code for analyses, and protocols. Despite these benefits, the use of GitHub in ecology and evolution is not widespread. To help researchers in ecology and evolution adopt useful features from GitHub to improve their research workflows, we review 12 practical ways to use the platform. We outline features ranging from low to high technical difficulty, including storing code, managing projects, coding collaboratively, conducting peer review, writing a manuscript, and using automated and continuous integration to streamline analyses. Given that members of a research team may have different technical skills and responsibilities, we describe how the optimal use of GitHub features may vary among members of a research collaboration. As more ecologists and evolutionary biologists establish their workflows using GitHub, the field can continue to push the boundaries of collaborative, transparent, and open research.

1 January 2019 in Environmental and Experimental Botany
Verified
Journal Article
Closed access
ESEric R. Scott
Eric R. Scott
XLXin Li
Xin Li
NKNicole Kfoury
Nicole Kfoury
JMJoshua Morimoto
Joshua Morimoto
WHWen-Yan Han
Wen-Yan Han
COColin Mark Orians
Colin Mark Orians

30 January 2019 in Annals of Botany
Verified
Journal Article
Open access
PDF file
COColin Mark Orians
Colin Mark Orians
RSRabea Schweiger
Rabea Schweiger
JDJeffrey S Dukes
Jeffrey S Dukes
ESEric R. Scott
Eric R. Scott
CMCaroline Müller
Caroline Müller
Future shifts in precipitation regimes and temperature are expected to affect plant traits dramatically. To date, many studies have explored the effects of acute stresses, but few have investigated the consequences of prolonged shifts in climatic conditions on plant growth and chemistry. Plant size and metabolite profiles were assessed on naturally occurring Plantago lanceolata plants growing under different precipitation (ambient, 50 % less than ambient = drought) and temperature (ambient, +0.8, +2.4 and +4.0 °C above ambient) treatments at the Boston Area Climate Experiment (constructed in 2007). The analysis of primary and secondary metabolites revealed pronounced effects of drought, and a precipitation × temperature interaction. Strikingly, the effects of precipitation were minimal at the two lower temperatures but marked at the two higher temperatures. Compared with the ambient condition, plants in the drought plots had lower concentrations of foliar nitrogen, amino acids and most sugars, and higher concentrations of sorbitol, citrate and malate, common stress-induced metabolites. This pattern was especially evident at high temperatures. Moreover, drought-exposed plants showed lower concentrations of catalpol, an iridoid glycoside. While the effect of warming on the metabolite profiles was less pronounced, differences were marked when combined with drought. Given the interactive effect of environmental variables on leaf chemistry, and the fact that woody and herbaceous plants seem to differ in their responses to temperature and precipitation, future studies should account for the direct and indirect effects of the community response to multifactorial field conditions.