TY - JOUR
T1 - Aeroecology: probing and modeling the aerosphere
AU - Kunz, T. H.
AU - Gauthreaux, S. A.
AU - Hristov, N. I.
AU - Horn, J. W.
AU - Jones, G.
AU - Kalko, E. K. V.
AU - Larkin, R. P.
AU - Mccracken, G. F.
AU - Swartz, S. M.
AU - Srygley, R. B.
AU - Dudley, R.
AU - Westbrook, J. K.
AU - Wikelski, M.
N1 - Funding Information:
We wish to thank the Society for Integrative and Comparative Biology (SICB) Program Committee, its program director, Linda Walters, the chairs of the divisions of Vertebrate Zoology, Comparative Biomechanics, and Ecology and Evolution for supporting the ‘Symposium on Aeroecology.’ We also thank Sue Burk, SICB meeting director for making the logistical arrangements to convene our symposium. We are grateful to Paul Cryan, Mark Friedl, Jeff Kelly, and Ana Popa-Lisseanu for their valuable suggestions on an earlier draft of this manuscript. We are especially grateful to Johnny Evers and Willard Larkin for their encouragement and support in convening this symposium. We wish to thank the Air Force Office of Scientific Research, through a grant to Boston University (FA9550-7-1-0449 to THK), for providing partial travel support for each of the speakers to present their papers as part of the ‘Symposium on Aeroecology,’ and the SICB for waiving registration fees for symposium speakers.
PY - 2008/7
Y1 - 2008/7
N2 - Aeroecology is a discipline that embraces and integrates the domains of atmospheric science, ecology, earth science, geography, computer science, computational biology, and engineering. The unifying concept that underlies this emerging discipline is its focus on the planetary boundary layer, or aerosphere, and the myriad of organisms that, in large part, depend upon this environment for their existence. The aerosphere influences both daily and seasonal movements of organisms, and its effects have both short- and long-term consequences for species that use this environment. The biotic interactions and physical conditions in the aerosphere represent important selection pressures that influence traits such as size and shape of organisms, which in turn facilitate both passive and active displacements. The aerosphere also influences the evolution of behavioral, sensory, metabolic, and respiratory functions of organisms in a myriad of ways. In contrast to organisms that depend strictly on terrestrial or aquatic existence, those that routinely use the aerosphere are almost immediately influenced by changing atmospheric conditions (e.g., winds, air density, precipitation, air temperature), sunlight, polarized light, moon light, and geomagnetic and gravitational forces. The aerosphere has direct and indirect effects on organisms, which often are more strongly influenced than those that spend significant amounts of time on land or in water. Future advances in aeroecology will be made when research conducted by biologists is more fully integrated across temporal and spatial scales in concert with advances made by atmospheric scientists and mathematical modelers. Ultimately, understanding how organisms such as arthropods, birds, and bats aloft are influenced by a dynamic aerosphere will be of importance for assessing, and maintaining ecosystem health, human health, and biodiversity.
AB - Aeroecology is a discipline that embraces and integrates the domains of atmospheric science, ecology, earth science, geography, computer science, computational biology, and engineering. The unifying concept that underlies this emerging discipline is its focus on the planetary boundary layer, or aerosphere, and the myriad of organisms that, in large part, depend upon this environment for their existence. The aerosphere influences both daily and seasonal movements of organisms, and its effects have both short- and long-term consequences for species that use this environment. The biotic interactions and physical conditions in the aerosphere represent important selection pressures that influence traits such as size and shape of organisms, which in turn facilitate both passive and active displacements. The aerosphere also influences the evolution of behavioral, sensory, metabolic, and respiratory functions of organisms in a myriad of ways. In contrast to organisms that depend strictly on terrestrial or aquatic existence, those that routinely use the aerosphere are almost immediately influenced by changing atmospheric conditions (e.g., winds, air density, precipitation, air temperature), sunlight, polarized light, moon light, and geomagnetic and gravitational forces. The aerosphere has direct and indirect effects on organisms, which often are more strongly influenced than those that spend significant amounts of time on land or in water. Future advances in aeroecology will be made when research conducted by biologists is more fully integrated across temporal and spatial scales in concert with advances made by atmospheric scientists and mathematical modelers. Ultimately, understanding how organisms such as arthropods, birds, and bats aloft are influenced by a dynamic aerosphere will be of importance for assessing, and maintaining ecosystem health, human health, and biodiversity.
KW - INHS
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U2 - 10.1093/icb/icn037
DO - 10.1093/icb/icn037
M3 - Article
C2 - 21669768
SN - 1540-7063
VL - 48
SP - 1
EP - 11
JO - Integrative and comparative biology
JF - Integrative and comparative biology
IS - 1
ER -