Geochemical Monitoring of Restoration ProgressEntry ID: USGS_SOFIA_geochem_mon_restore_fy04
Abstract: Continued geochemical monitoring efforts will provide a measure of the progress and effects of restoration on environmental health and water quality, and complement biological monitoring of indicator species. This information is essential for identifying when successful restoration has been accomplished. Additionally, this geochemical monitoring program will serve as a model for developing similar ... programs for monitoring other coastal and lacustrine environments targeted in future projects. Products include a productivity database for Florida Bay and bimonthly salinity, dissolved oxygen, pH, carbon speciation, and air:sea CO2 gas flux maps of Florida Bay.
The flow of fresh water from the Everglades to Florida Bay and the interaction of Bay water with the Gulf of Mexico and Atlantic Ocean are critical processes that have defined the Florida Bay Ecosystem. Reconstruction of historical changes in the Florida Bay Ecosystem using paleoecological and geochemical data from cores and historical databases indicates that significant changes in water quality and circulation (McIvor et al., 1994; Rudnick et al., 1999; Boyer et al., 1999; Halley and Roulier, 1999; Swart et al., 1999), and biological species composition and ecology (Brewster-Wingard and Ishman, 1999; Fourqurean and Robblee, 1999; Hall et al., 1999; Zieman et al., 1999) have been coincident with alteration of drainage patterns in the Everglades and construction of bridges linking the Keys. Paleoecological data from cores also indicates that changes in the abundance of seagrass and algae in the Bay have been coincident with salinity changes and that significant loss of seagrass on mud banks and basins has occurred over the last several years. Stable isotope data from sediment cores indicate decreased circulation in the Bay coincident with railroad building and early drainage in South Florida. Water management practices in South Florida are already being altered in an effort to restore the Everglades and Florida Bay. Resulting changes in water chemistry will first affect biogeochemical processes, and may, subsequently, result in changes in species distributions (such as seagrass, algae, etc.) in the Bay. An extensive water quality monitoring program for Florida Bay has been in operation for several years. Primary participants include ENP - fixed water quality monitoring stations, NOAA -salinity, chlorophyll, and transmittance bimonthly surveys, SFWMD - northeast Bay and north coast monitoring, and Florida International University (FIU) - nutrient monitoring. These programs have provided detailed information on concentrations of water quality parameters in the Bay. However, in situ monitoring of key biogeochemical processes resulting directly from biological activity has not been undertaken. Monitoring changes in biogeochemical processes is critical to early identification of ecological response to restoration and predicting changes in species distribution within the Bay. Additionally, these processes may directly impact water quality. Calcification, photosynthesis, and respiration directly affect dissolved oxygen, pH, dissolved inorganic carbon and a number of other chemical characteristics of the water column. This information will enable managers to evaluate the progress and success of South Florida restoration efforts.
(Click for Interactive Map)
Data Set Citation
Dataset Originator/Creator: Kimberly K. Yates Robert Halley (retired)
Dataset Title: Geochemical Monitoring of Restoration Progress
Dataset Release Date: 2004
Data Presentation Form: mapsOnline Resource: http://sofia.usgs.gov/projects/index.php?project_url=geo_monitor/
Start Date: 1999-10-01Stop Date: 2004-09-30
BIOSPHERE > TERRESTRIAL ECOSYSTEMS > WETLANDS
HUMAN DIMENSIONS > HABITAT CONVERSION/FRAGMENTATION > RECLAMATION/REVEGETATION/RESTORATION
TERRESTRIAL HYDROSPHERE > WATER QUALITY/WATER CHEMISTRY > DISSOLVED GASES
TERRESTRIAL HYDROSPHERE > WATER QUALITY/WATER CHEMISTRY > PH
TERRESTRIAL HYDROSPHERE > WATER QUALITY/WATER CHEMISTRY
OCEANS > OCEAN CHEMISTRY > CARBONATE
OCEANS > OCEAN CHEMISTRY > DISSOLVED GASES
OCEANS > SALINITY/DENSITY > SALINITY
OCEANS > WATER QUALITY
BIOSPHERE > AQUATIC ECOSYSTEMS > WETLANDS
BIOSPHERE > ECOLOGICAL DYNAMICS > COMMUNITY DYNAMICS > INDICATOR SPECIES
BIOSPHERE > ECOLOGICAL DYNAMICS > ECOSYSTEM FUNCTIONS > BIOGEOCHEMICAL CYCLES
Access Constraints None
Use Constraints None
Data Set Progress
Distribution Format: ASCII
Role: TECHNICAL CONTACT
Phone: (727) 803-8747 ext. 3059
Fax: (727) 803-2031
Email: kyates at usgs.gov
U.S. Geological Survey 600 4th Street South
City: St. Petersburg
Province or State: FL
Postal Code: 33701
Role: DIF AUTHOR
Email: alicia.m.aleman at nasa.gov
Goddard Space Flight Center Code 610.2
Province or State: MD
Postal Code: 20771
Millero, F. J., 1979, The thermodynamics of the carbonate system in seawater, Geochimica et Cosmochimica Acta, 43:1651-1661, Oxon, United Kingdom, Geochemical Society (Elsevier Science Ltd.)
Barnes, D. J., 1983, Profiling coral reef productivity and calcification using pH and oxygen electrodes,
Journal of Experimental Marine Biology and Ecology, 66:149-161, Amsterdam, ... Netherlands, Elsevier Science BV.
Frankignoulle, M., Disteche, A., 1984, CO2 chemistry in the water column above a Posidonia seagrass bed and related air-sea exchanges, Oceanologica Acta, 7(2):209-219, Paris, France, Institute Franceis de Recherche pour l'Exploitation de la Mer.
Gattuso, J. P., Pichon, M.; Delesalle, B.; Frankignoulle, M., 1993, Community metabolism and air-sea CO2 fluxes in a coral reef ecosystem (Moorea, French Polynesia), Marine Ecology Progress Series, 96:259-267, Oldendorf, Germany, Inter-Research.
Smith, S. V., 1973, Carbon dioxide dynamics: a record of organic carbon production, respiration, and calcification in the Eniwetok reef flat community, Limnology and Oceanography, 18(1):106-120, Washington, DC, American Society of Limnology and Oceanography.
Prager, E., Halley, R. B., 1997, Florida Bay Bottom Types, USGS Open-File Report, OFR 97-526, St. Petersburg, FL, USGS, Center for Coastal and Regional Marine Studies.
Boyer, J. N., Fourqurean, J. W.; Jones, R. D., 1999, Seasonal and long-term trends in the water quality of Florida Bay (1989-1997), Estuaries, Issue_Identification: v. 22, n. 2B,, New Tork, New York, Springer New York.
Brewster-Wingard, G.L., Ishman, S. E., 1999, Historical trends in salinity and substrate in Florida Bay: a paleoecological reconstructin using modern analogue data, Esturaries, v. 22, n. 2B,, New York, New York, Springer New Yor.k
Stumpf, R. P., Frayer, M. L.; Durako, M. J.; Brock, J. C., 1999, Variations in water clarity and bottom albedo in Florida Bay from 1985 to 1997, Estuaries, v.22, n. 2B, New York, New York, Springer New York.
Halley, R. B., Roulier, L. M., 1999, Reconstructing the history of eastern and central Florida Bay using mollusk-shell isotope records, Estuaries, 22(2), Port Republic, MD, Estuaries Research Federation.
Fourqurean, J. W,. Robblee, M. B., 1999, Florida Bay: a history of recent ecological changes, Estuaries, v. 22, n.2B, New York, Springer New York.
McIvor, C. C., Jey, J. A.; Bjork, R. D., 1994, Changes in freshwater inflow from the Everglades to Florida Bay including effects on biota and biotic processes: a review, Delray Beach, FL, St. Lucie Press, in: Everglades the Ecosystem and Restoration, S. M. Davis and J. C. Ogden, eds.
Millero, F. J., Zhang, J.; Lee, K.; Campbell, D. M., 1993, Titration alkalinity of seawater, Marine Geochemistry, 44: 153-166, Dordrecht, Netherlands, Kluwer Academic Press.
Rama and Willard S. Moore, 1996, Using the radium quartet for evaluating ground water input and water exchange in salt marshes, Geochimica et Cosmochimica Acta, 60: 4645-4652, Oxon, United Kingdom,
Geochemical Society (Elsevier Science Ltd.)
Robblee, M. B., Barber, T. R.; Carlson, P. R.; Drako, M. J.; Furqurean, J. W.; Muehlstein, L. K.; Porter, D.; Yarboro, L. A.; Zieman, R. T.; Zieman, J. C., 1991, Mass mortality of the tropical seagrasses Thalassia testudinum in Florida Bay, Marine Ecology Progress Series, 71: 297-299, Olendorf, Germany, inter-Research.
Rudnick, D. T., Chen, Z.; Childers, D. L.; Boyer, J. N.; Fontaine, T. D., 1999, Phosphorus and nitrogen inputs to Florida Bay: the importance of the Everglades watershed, Estuaries, v. 22, n. 2B,, New York, New York, Springer New York.
Smith, S. V., Key, G. S., 1975, Carbon dioxide and metabolism in marine environments, Limnology and Oceanography, 20: 493-495, Washington, D.C., American Society of Limnology and Oceanography.
Swart, P. K,. Healy, G.; Greer, L.; Lutz. M.; Saied, A.; Anderegg, D.; Dodge, R. E.; Rudnick, D. T., 1999, The use of proxy chemical records in coral skeletons to ascertain past environmental conditions in Florida Bay, Esturaries, v. 22, n. 2B,, New York, New York, Springer New York.
Zieman, J. C., Fourqurean, J. W.; Frankovich, T. A., 1999, Seagrass die-off in Florida Bay: long-term trends in abundance and growth of Turtle Grass (Thalassia testudinum), Estuaries, v. 22 n. 2B, New York, New York, Springer New York.
Yates, Kimberly, Halley, Robert, 2000, Geochemical Productivity Monitoring in Florida Bay,USGS Open-File Report, 00-361, St. Petersbrug, FL, U.S. Geological Survey.
Yates, K., 2000, SHARQ Infested Waters, USGS Open-File Report, 00-166, St. Petersburg, FL, U.S. Geological Survey.
Robbins, J. A., Holmes, C. W.; Halley, R. B.; Bothner, M.; Shinn, E. A.; Graney, J.; Keeler, G.; ten Brink, M.; Orlandini, K. A.; Rudnick, D., 2000, Time-averaged fluxes of lead and fallout radionuclides to sediments in Florida Bay, Journal of Geophysical Research, Oceans, v. 105, n. C12, Washington, DC, American Geophysical Union.
Yates, K. K., Halley, R. B., 2003, Measuring coral reef community metabolism using new benthic chamber technology, Coral Reefs, v. 22, n. 3, Heidelberg, Germany, Springer-Verlag.
Creation and Review Dates
DIF Creation Date: 2008-11-04
Last DIF Revision Date: 2009-06-02