Environmental and Climate research at Brookhaven National Lab is focused on aerosol chemistry and microphysics, aerosol related infrastructure, climate and process modeling, cloud processes, data management and software engineering, terrestrial ecosystems, meteorological services, and tracer technologies.
Aerosol Chemistry & Microphysics
Focused on improving process-level understanding of aerosol formation and evolution mechanisms, aerosol absorption, and the direct and indirect influences that aerosols have on clouds, precipitation and climate.
Aerosol Related Infrastructure
Provides measurement capabilities to the DOE Atmospheric Radiation Measurement (ARM) program for long-term measurements of aerosols and their precursors across a global network of ground- and aircraft-based locations.
Climate and Process Modeling
Uses multi-scale process modeling and observational analyses to understand the processes essential to clouds, precipitation, land-atmosphere interactions, and urban impacts.
Cloud Processes
Seeks to improve understanding of microphysical and dynamical processes that impact the lifecycle of clouds to improve their representation in climate models.
Technology Development & Applications and Meteorological Services
Responsible for the maintenance, calibration, data collection and data archiving for the weather instrumentation network associated with BNL's atmospheric dispersion concerns.
Terrestrial Ecosystem Science & Technology
Seeks to improve the representation of ecosystem processes in Earth System Models in order to increase our ability to understand and project global change.
Tracer Technologies
The Tracer Technology Group uses perfluorocarbon tracers as a tool for understanding the processes that transport air, heat, water, and pollutants.
Funding Agencies
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OCT
1
Thursday
Environmental & Climate Sciences Department Seminar
"Thermal acclimation of photosynthesis: patterns and diversity of plant responses to warming"
Presented by Danielle Way, Western University, Canada
2:30 pm, Large Conference Room, Bldg. 490
Thursday, October 1, 2020, 2:30 pm
Hosted by: Alistair Rogers
Climate change will increase global temperatures 3-4 ?C by 2100. This warming will affect photosynthesis, a temperature-sensitive process that helps dictate plant growth. Warming-induced shifts in photosynthesis also affect the global carbon cycle, mitigating or accelerating further climate change. Understanding how photosynthesis acclimates to future temperatures is therefore critical for accurately predicting the trajectory of future climate change, as well as for estimating plant productivity in a warmer world. I'll discuss how elevated growth temperatures impact photosynthesis, using meta-analyses, modeling and results from my lab, highlighting both what we know and the key questions that remain to be answered.
