Chapter 12 Aquatic Optics
301
Chapter 13 will consider the development of such
models for submerged plant canopies and the implications for leaf photosynthesis, ecosystem level
productivity. Chapter 15 will discuss how IOPs,
AOPs, and radiative transfer theory can be used to
develop quantitative methods for remote sensing of
submerged aquatic vegetation.
References
Baker K and Smith R (1979) Quasi-inherent characteristics of
the diffuse attenuation coefficient for irradiance. Soc Photoopt Instrum Eng 208: 60–63
Dekker AG Brando VE, Anstee JM, Pinnel N, Kutser T,
Hoogenboom HJ, Peters SWM, Pasterkamp R, Vos RJ, Olbert
C and Malthus TJ (2001) Imaging spectrometry of water. Imaging Spectrometry: Basic Principles and Prospective
Applications, IV, pp 307–359. Kluwer Academic Publishers,
Dordrecht
Falkowski P and Raven J (1997) Aquatic Photosynthesis. Blackwell, New York
Ganapol B and Myneni R (1992) The F N Method for the oneangle radiative transfer equation applied to plant canopies.
Remote Sens Environ 39: 212–231
Goudriaan J (1988) The bare bones of leaf-angle distribution in
radiation models for canopy photosynthesis and energy exchange. Agric Forest Meterol 43: 155–169
Kirk JTO (1994) Light and photosynthesis in aquatic ecosystems.
Cambridge University Press, Cambridge, UK
Miller RL and McPherson BF (1995) Modeling photosynthetically active radiation in waters of Tampa Bay, Florida, with
emphasis on the geometry of incident irradiance. Estuar Coast
Shelf Sci 40: 359–377
Mobley C (1994) Light and water: Radiative transfer in natural
waters. Academic Press, San Diego, CA, USA
Shultis J and Myneni R (1988) Radiative transfer in vegetation
canopies with anisotropic scattering. J Quant Spectrosc Radiat
Transfer 39: 115–129
Zimmerman R (2003) A biooptical model of irradiance distribution and photosynthesis in seagrass canopies. Limnol
Oceanogr 48: 568–585
301
Chapter 13 will consider the development of such
models for submerged plant canopies and the implications for leaf photosynthesis, ecosystem level
productivity. Chapter 15 will discuss how IOPs,
AOPs, and radiative transfer theory can be used to
develop quantitative methods for remote sensing of
submerged aquatic vegetation.
References
Baker K and Smith R (1979) Quasi-inherent characteristics of
the diffuse attenuation coefficient for irradiance. Soc Photoopt Instrum Eng 208: 60–63
Dekker AG Brando VE, Anstee JM, Pinnel N, Kutser T,
Hoogenboom HJ, Peters SWM, Pasterkamp R, Vos RJ, Olbert
C and Malthus TJ (2001) Imaging spectrometry of water. Imaging Spectrometry: Basic Principles and Prospective
Applications, IV, pp 307–359. Kluwer Academic Publishers,
Dordrecht
Falkowski P and Raven J (1997) Aquatic Photosynthesis. Blackwell, New York
Ganapol B and Myneni R (1992) The F N Method for the oneangle radiative transfer equation applied to plant canopies.
Remote Sens Environ 39: 212–231
Goudriaan J (1988) The bare bones of leaf-angle distribution in
radiation models for canopy photosynthesis and energy exchange. Agric Forest Meterol 43: 155–169
Kirk JTO (1994) Light and photosynthesis in aquatic ecosystems.
Cambridge University Press, Cambridge, UK
Miller RL and McPherson BF (1995) Modeling photosynthetically active radiation in waters of Tampa Bay, Florida, with
emphasis on the geometry of incident irradiance. Estuar Coast
Shelf Sci 40: 359–377
Mobley C (1994) Light and water: Radiative transfer in natural
waters. Academic Press, San Diego, CA, USA
Shultis J and Myneni R (1988) Radiative transfer in vegetation
canopies with anisotropic scattering. J Quant Spectrosc Radiat
Transfer 39: 115–129
Zimmerman R (2003) A biooptical model of irradiance distribution and photosynthesis in seagrass canopies. Limnol
Oceanogr 48: 568–585