Jeffery G. Paine’s scientific contributions

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Publications (2)


Annual to Decadal Morphodynamics of the Beach-Foredune System along the Texas Upper Coast
  • Conference Paper

February 2012

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14 Reads

Sojan Mathew

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Jeffery G. Paine

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Tiffany L. Caudle

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It has been documented that the Gulf of Mexico shoreline along the Texas upper coast is eroding at an average rate of 1.6 m/yr. (Paine et al., 2011). Relative sea-level rise, local circulation patterns, high intensity storms and lack of sediment supply combined with anthropogenic activities along developed areas of the barrier island may have contributed to this chronic erosion, although the relative significance of each is still largely unknown. Barrier island transgression takes place as a result of both ongoing alongshore and onshore sand transport by waves through hydrodynamic processes and transport into the dune system through aerodynamic processes, as well as by episodic events associated with, for example, the impact of hurricanes. The purpose of this study was to quantify the amount of sediment accretion/erosion at various locations within the beach-foredune system along the Texas upper coast to measure consequent changes in beach-foredune morphology. This was done for periods ranging from a few days to multiple years using topographic profiles, aerial photography, and lidar data. The data collected was used to determine the significance of the relationship between observed temporal/spatial patterns of morphological change with the following controlling variables: shoreline position, vegetation line, beach width, foredune crest/toe line, and dune stoss slope geometry. The relative significance of seasonal/annual processes verses response of the foredune system to broader geomorphic controls (e.g., relative sea level rise, storms, etc.) will also be assessed.


3D visualization and morphological change analysis using LiDAR point cloud data
  • Conference Paper
  • Full-text available

February 2011

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142 Reads

Sojan Mathew

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Tiffany L. Caudle

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[...]

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Jeffery G. Paine

Availability of highly accurate and spatially as well as spectrally dense topographic data provided us with myriad opportunities for advancing our understanding of how the coastal environment has evolved over time, as well as predicting its future evolution in the event of large magnitude storms (such as hurricanes) or human-made disasters such as oil spills. This presentation will address the applications of a series of algorithms that were developed for 3D visualization morphological change analysis of dynamic coastal environments using point cloud data and image fusion techniques. Tools developed as part of this investigation will be used to address shoreline erosion, beach-dune sediment budget, status and trends of aquatic habitats, and restoration of beaches, dunes, and wetlands along the Gulf Coast shorelines. The tools will allow any users to run GEOID model and bias correction on raw point cloud data as well as to convert ASCII point cloud data into LAS 1.3 format and its conversion to seamless raster grid with user-defined variable cell size. These programs will also integrate X, Y, Z values of lidar point cloud data with RGB values of imagery, which could be a useful tool for visualization and morphological change analysis. It will also allow users to convert LAS format point cloud data into other data formats such as KML, VRML, and OSG, thus allowing any user to visualize/analyze the data on any computer (Windows, Apple, and Linux), using free visualization software as Google Earth, OpenSceneGraph, Terrain Viewer, VrmlView, Qsplat etc. Practical application of these tools will be demonstrated using examples from the Gulf Coast.

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