Lindsay Brin

Lindsay Brin
  • PhD
  • Analyst at T4G Limited

About

13
Publications
1,463
Reads
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390
Citations
Introduction
Research interests: • Sediment and soil biogeochemistry, particularly nitrogen cycling, and the regulation of biogeochemical processes by environmental factors • The environmental consequences of human actions, and how the dynamic relationship between humans and ecosystems may change with climate change and human land use • Microbial ecology, and the relationship between microbial community structure and biogeochemical processes
Current institution
T4G Limited
Current position
  • Analyst
Additional affiliations
February 2017 - present
T4G Limited
Position
  • Researcher
April 2016 - January 2017
University of New Brunswick
Position
  • PhD Student
September 2008 - September 2013
Brown University
Position
  • Denitrification, anammox and dissimilatory nitrate reduction to ammonium in New England coastal sediments: Regulation of processes by temperature, organic matter, and nitrate
Description
  • My dissertation research focuses on the effects of different environmental variables, and temperature in particular, on nitrate reduction in RI sediments, at multiple spatial and temporal scales.
Education
September 2008 - September 2013
Brown University
Field of study
  • Ecology, Biogeochemistry, Microbial Ecology
September 2006 - May 2008
Boston University/Marine Biological Laboratory
Field of study
  • Coastal ecology and biogeochemistry
September 2001 - May 2005
Swarthmore College
Field of study
  • Biology, Environmental Studies

Publications

Publications (13)
Article
Full-text available
Climate change-related warming and increased precipitation may alter winter snow cover and thawing events, and therefore, may carry significant consequences for nitrous oxide (N2O) production pathways such as denitrification, and the abundance and expression of denitrifying microorganisms. We used a soil microcosm study to investigate the combined...
Article
In eastern Canada, climate change-related warming and increased precipitation may alter winter snow cover, with potential consequences for soil conditions, nitrogen (N) cycling, and microbes. We conducted a two-year field study aimed at determining the influence of snow removal, snow accumulation, and ambient snow in a potato-barley crop system on...
Article
Climate change-related increases in winter temperatures and precipitation, as predicted for eastern Canada, may alter snow cover, with consequences for soil temperature and moisture, nitrogen cycling, and greenhouse gas fluxes. To assess the effects of snow depth in a humid temperate agricultural ecosystem, we conducted a two-year field study with...
Article
Full-text available
Nongrowing season (NGS) greenhouse gas (GHG) emissions may be significant in cold agricultural regions, but the influence of winter conditions, soil type, and fall manuring must be better documented. We monitored NGS N2O and CO2 fluxes and soil atmosphere composition from 2009 to 2013, on sandy loam and silty clay soils, with and without fall-appli...
Article
Removal of biologically available nitrogen (N) by the microbially mediated processes denitrification and anaerobic ammonium oxidation (anammox) affects ecosystem N availability. Although few studies have examined temperature responses of denitrification and anammox, previous work suggests that denitrification could become more important than anammo...
Article
Zebarth, B. J., Forge, T. A., Goyer, C. and Brin, L. D. 2015. Effect of soil acidification on nitrification in soil. Can. J. Soil Sci. 95: 359–363. This laboratory experiment examined the effect of elemental S-induced variation in soil pH (3.97–5.29) on nitrification enzyme activity and conversion of [Formula: see text] to [Formula: see text]. Nitr...
Conference Paper
Background/Question/Methods Agricultural ecosystems contribute the majority of global anthropogenic emissions of the greenhouse gas nitrous oxide (N2O). Up to 80% of annual N2O fluxes occur during the non-growing season, often as pulses during midwinter and spring thaws. In the northeastern United States and eastern Canada, climate change may incre...
Article
Climate change may have differing effects on microbial processes that control coastal N avail- ability. We conducted a microcosm experiment to explore effects of warming and carbon availability on nitrate reduction pathways in marine sediments. Sieved continental shelf sediments were incubated for 12 weeks under aerated seawater amended with nitrat...
Conference Paper
Background/Question/Methods Warming ocean temperatures associated with climate change may affect biogeochemical cycling in coastal ecosystems, with consequences for ecosystem nitrogen (N) availability. In coastal sediments, denitrification and anammox (anaerobic ammonium oxidation) reduce NO3- or NO2- to N2, removing biologically available N from...
Article
We measured denitrification and anammox potential rates in homogenized sediments over two annual cycles from two estuarine sites (Providence River estuary and Narragansett Bay) and two continental shelf sites (Block Island and Rhode Island sounds). Denitrification varied both spatially and seasonally, but anammox only varied spatially. Denitrificat...
Article
Animals and plants in the marine intertidal zone live at the interface between terrestrial and marine environments. This zone is likely to be a sensitive indicator of the effects of climate change in coastal ecosystems, because of several key characteristics including steep environmental gradients, rapid tem-perature changes during tide transitions...
Article
Full-text available
Mass balance studies conducted in the 1970s in Great Sippewissett Salt Marsh, New England, showed that fertilized plots intercepted 60 to 80% of the nitrogen (N) applied at several treatment levels every year from April to October, where interception mechanisms include plant uptake, denitrification and burial. These results pointed out that salt mar...
Article
Studies of intertidal organisms have contributed significantly to the understanding of complex biological responses to climate change. The intense thermal stresses characteristic of rocky coastal settings facilitate rapid population shifts, causing these habitats to be especially susceptible to deviations in weather patterns. Traditional in situ me...

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