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Life Sciences Commons

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Marine Biology

The University of Maine

University of Maine Office of Research Administration: Grant Reports

2010

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Full-Text Articles in Life Sciences

Symposium Support: Integrative Biology Of Animal Regeneration - Seattle, Wa January 2010, Sara M. Lindsay, Alexandra Bely Dec 2010

Symposium Support: Integrative Biology Of Animal Regeneration - Seattle, Wa January 2010, Sara M. Lindsay, Alexandra Bely

University of Maine Office of Research Administration: Grant Reports

Certain animals can regrow (regenerate) lost body parts, whereas others cannot. This is a fascinating and important area of biology, but why only some animals have this ability is still poorly understood. The purpose of this conference symposium is to bring together researchers working on regeneration from a variety of research perspectives in order to foster integrative approaches to studying this question. Ten researchers working from different perspectives in regeneration biology, ranging from molecular and cell biology to ecology, will present current research findings and participants will discuss the state of the field and needed areas for future research. Additional …


U.S. Globec: Nwa Georges Bank - Processes Controlling Abundance Of Dominant Copepod Species On Georges Bank: Local Dynamics And Large-Scale Forcing, Jeffrey A. Runge Jun 2010

U.S. Globec: Nwa Georges Bank - Processes Controlling Abundance Of Dominant Copepod Species On Georges Bank: Local Dynamics And Large-Scale Forcing, Jeffrey A. Runge

University of Maine Office of Research Administration: Grant Reports

A fundamental goal of Biological Oceanography is to understand how underlying biological-physical interactions determine abundance of marine organisms. For animal populations, it is well known that factors controlling survival during early life stages (i.e., recruitment) are strong determinants of adult population size, but understanding these processes has been difficult due to model and data limitations. Recent advances in numerical modeling, together with new 3D data sets, provide a unique opportunity to study the biological-physical processes controlling zooplankton population size. This project uses an existing state-of-the-art biological/physical numerical model (FVCOM) together with the recently processed large 3D data set from the …