Mechanisms of bicarbonate use influence the photosynthetic carbon dioxide sensitivity of tropical seagrasses
Limnology and Oceanography Methods (3), 2013, 839–848
2013
Miniature seagrass.
Biscayne National Park; National Park Service
Photographs of Biscayne National Park.
Seagrasses and algae
Biscayne National Park; National Park Service
Underwater photographs of Biscayne National Park.
Biscayne Bay
Biscayne National Park; National Park Service
Close-up photography of Biscayne Bay seagrass.
Seagrass field
Biscayne National Park; National Park Service
Field of shallow water seagrass and algae.
Young staghorn coral and seagrass
Biscayne National Park; National Park Service
Underwater photography of Biscayne National Park.
Biscayne Bay
Biscayne National Park; National Park Service
Underwater photographs of Biscayne National Park; Biscayne Bay.
Seagrasses
Biscayne National Park; National Park Service
Underwater photographs of Biscayne National Park.
Seagrass bed and seashells
Biscayne National Park; National Park Service
Seagrass bed with seashells from above.
Seagrass bed
Biscayne National Park; National Park Service
High-contrast photograph of seagrass bed.
Miniature coral
Biscayne National Park; National Park Service
Miniature coral amid sea grass, Biscayne Bay floor.
Biscayne Bay
Biscayne National Park; National Park Service
Underwater photography of Biscayne Bay; close-up of sea grass.
Sea grass bed
Biscayne National Park; National Park Service
Bed of sea grass and large coral, Biscayne National Park.
Seagrass field
Biscayne National Park; National Park Service
Underwater photography of Biscayne National Park sea grass.
Underwater grasses and pebbles
Biscayne National Park; National Park Service
Shallow water with grasses and pebbles.
Underwater sand dunes
Biscayne National Park; National Park Service
Underwater sand dunes amid seagrass field, Biscayne National Park.
Bay bottom
Biscayne National Park; National Park Service
Photograph of seagrass bed, bay bottom, Biscayne National Park.
Seagrass bed and coral, April 1974
Biscayne National Park; National Park Service
Seagrass bed and coral structure from above.
Mass of manatee and shoal grass in drift line debris, Elliott Key
Biscayne National Park; National Park Service
Mass of manatee and shoal grass in driftline debris on Elliott Key.
Environmental Studies of Buck Island Reef National Monument, St. Croix, U.S.V.I., volumes I
National Park Service Water Resources Division; National Park Service
Bay bottom, seagrass
Biscayne National Park; National Park Service
Bay bottom, close-up of seagrass and sand.
Bed of seagrass and mangrove roots
Biscayne National Park; National Park Service
Bed of seagrass and mangrove roots.
Bed of seagrass, Biscayne Bay
Biscayne National Park; National Park Service
Bed of seagrass and irregular sand hump, Biscayne Bay.
Seagrass bed, bay bottom
Biscayne National Park; National Park Service
High-contrast photograph of seagrass bed, bay bottom, Biscayne National Park.
Seagrass bed and fish
Biscayne National Park; National Park Service
Photograph of seagrass bed and fish, bay bottom, Biscayne National Park.
Long-term effects of adding nutrients to an oligotrophic coastal environment
Armitage, A.R., T.A. Frankovich, J.W. Fourqurean. 2011. Long-Term Effects of Adding Nutrients to an Oligotrophic Coastal Environment . Ecosystems 14(3): 430-444.
2011
Nutrient enrichment, grazer identity, and their effects on epiphytic algal assemblages: field experiments in subtropical turtlegrass Thalassia testudinum meadows
Marine Ecology Progress Series Vol. 406: 33–45, 2010
2010
Seagrass bed, Bay bottom
Biscayne National Park; National Park Service
Close-up photograph of seagrass bed and mangrove roots at the bottom of Biscayne bay.
Results and recommendation of a workshop convened to examine the capability of water quality criteria, standards and monitoring programs to protect seagrasses from deteriorating water transparency
National Park Service Water Resources Division; National Park Service
Negative relationships between the nutrient and carbohydrate content of the seagrass Thalassia testudinum
(Citation/Reference) Campbell, J.E., L.A. Yarbro, J.W. Fourqurean. 2012. Negative relationships between the nutrient and carbohydrate content of the seagrass Thalassia testudinum. Aquatic Botany 99: 56-60.
2012
Contrasting patterns of individual specialization and trophic coupling in two marine apex predators
(Citation/Reference) Matich, P., M.R. Heithaus, C.A. Layman. 2011. Contrasting patterns of individual specialization and trophic coupling in two marine apex predators. Journal of Animal Ecology 80(1): 294-305.
2010
Interspecific variation in the elemental and stable isotope content of seagrasses in South Florida; Interspecific variation in seagrass elemental and isotopic content
(Citation/Reference) Campbell, J.E., J.W. Fourqurean. 2009. Interspecific variation in the elemental and stable isotopic content of seagrasses in South Florida. Marine Ecology Progress Series 387: 109-123.
2009
Experimental nutrient enrichment causes complex changes in seagrass, microalgae, and macroalgae community structure in Florida Bay
(Citation/Reference) Armitage, A.R., J.W. Fourqurean. 2009. Stable isotopes reveal complex changes in trophic relationships following nutrient addition in a coastal marine ecosystem. Estuaries and Coasts 32: 1152-1164.
2009
Seagrass and corals, Fort Jefferson, circa 1960
Everglades National Park; National Park Service
Close up, underwater view of plants and coral on the ocean floor; circa 1950-70's; "Underwater shots, Ft. Jeff., by M. W. Williams" Locality: Fort Jefferson Photo Source: Keywords: Marine, Wildlife, Plants.
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