A modular approach to time-based UAN simulation development
MetadataShow full item record
The necessity to project naval combat power throughout the littorals has resulted in the explosion of growth in the development and implementation of wireless underwater networks. Contrary to the terrestrial wireless signal, which uses electromagnetic (radio) signals as a medium for the transfer of data, an underwater network utilizes acoustic signals to carry data. Additionally, unlike the terrestrial counterpart, the underwater acoustic network operates in a dynamic, ever changing environment that is susceptible to dramatic shifts in ocean water columns that are influenced by numerous parameters, e.g.density, temperature, depth, and current. Couple this with the mechanical impediments of electronic equipment, operating in a waterborne environment, and the problems begin to multiply exponentially. This thesis presents a new, standardized application programming interface for the development of acoustic physics models and network protocol stacks that can be dynamically loaded into an underwater acoustic network simulator. The interface will meet the needs of the United States Navy, scientific organizations, and private parties, by providing a key building block of a robust, modular based simulation framework that will allow rapid and cost saving research and development and testing of underwater networking technologies.
RightsThis publication is a work of the U.S. Government as defined in Title 17, United States Code, Section 101. Copyright protection is not available for this work in the United States.
Showing items related by title, author, creator and subject.
Hardman, Daniel J. (Monterey, CA; Naval Postgraduate School, 2019-12);Underwater explosions and their devastating effects are not new to the U.S. Navy; however, accurately modeling and scaling them for research and development is always an area of interest for anyone trying to protect the ...
McMillian, Scott; Orin, David E.; McGhee, Robert B. (IEEE, 1995);An eficient simulation algorithm for an underwater robotic vehicle with a single manipulator was developed in [l] which included the hydrodynamic effects due to added mass, viscous drag, fluid acceleration, and buoyancy forces. ...
Dessalermos, Spyridon (Monterey, California. Naval Postgraduate School, 2011-06);This research concerns the development of an adaptive receiver for underwater communication. In this type of wireless link, the radio channel is replaced by an underwater acoustic channel, which is strongly dependent on ...