These characteristics,in turn, determine properties such as buoyancy, drag coefficient,
reflectance, and the potential for measurable DFG–ocean watertemperature differentials. The primary objective of this strategy component is to provide information needed for direct and indirection detection of DFG at sea.Remote sensing experts stressed the need for the development
of a requirements document to profile the characteristics of DFG at sea. The type of material, size, presence and concentration of encrusting organisms, and other factors determine the optical properties of DFG. An understanding of the optical properties of DFG is needed in order to assess the utility of various remote sensors.Oceanographers emphasized that the results of modeling the concentration and movement of DFG are highly dependent on the
size, vertical profile, and buoyancy of the target (DFG) objects. Workshop participants agreed that most observations of DFG have been anecdotal and that a systematic data collection and compilation effort was needed to gain a better understanding of the size,composition, and behavior of DFG at sea. Workshop participants identified numerous gaps in knowledge related to the characteristics and behavior of DFG. Actions to address these gaps are summarized in Table 1 and detailed below
These characteristics,in turn, determine properties such as buoyancy, drag coefficient,reflectance, and the potential for measurable DFG–ocean watertemperature differentials. The primary objective of this strategy component is to provide information needed for direct and indirection detection of DFG at sea.Remote sensing experts stressed the need for the developmentof a requirements document to profile the characteristics of DFG at sea. The type of material, size, presence and concentration of encrusting organisms, and other factors determine the optical properties of DFG. An understanding of the optical properties of DFG is needed in order to assess the utility of various remote sensors.Oceanographers emphasized that the results of modeling the concentration and movement of DFG are highly dependent on thesize, vertical profile, and buoyancy of the target (DFG) objects. Workshop participants agreed that most observations of DFG have been anecdotal and that a systematic data collection and compilation effort was needed to gain a better understanding of the size,composition, and behavior of DFG at sea. Workshop participants identified numerous gaps in knowledge related to the characteristics and behavior of DFG. Actions to address these gaps are summarized in Table 1 and detailed below
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These characteristics,in turn, determine properties such as buoyancy, drag coefficient,
reflectance, and the potential for measurable DFG–ocean watertemperature differentials. The primary objective of this strategy component is to provide information needed for direct and indirection detection of DFG at sea.Remote sensing experts stressed the need for the development
of a requirements document to profile the characteristics of DFG at sea. The type of material, size, presence and concentration of encrusting organisms, and other factors determine the optical properties of DFG. An understanding of the optical properties of DFG is needed in order to assess the utility of various remote sensors.Oceanographers emphasized that the results of modeling the concentration and movement of DFG are highly dependent on the
size, vertical profile, and buoyancy of the target (DFG) objects. Workshop participants agreed that most observations of DFG have been anecdotal and that a systematic data collection and compilation effort was needed to gain a better understanding of the size,composition, and behavior of DFG at sea. Workshop participants identified numerous gaps in knowledge related to the characteristics and behavior of DFG. Actions to address these gaps are summarized in Table 1 and detailed below
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