Zobrazeno 1 - 10
of 53
pro vyhledávání: '"David J. Olinger"'
Publikováno v:
Journal of Guidance, Control, and Dynamics. 43:847-853
Publikováno v:
Journal of Guidance, Control, and Dynamics. 42:958-962
Autor:
Moritz Diehl, Tony A. Wood, David J. Olinger, Sebastian Rapp, Roy S. Smith, Rachel Leuthold, Michael A. Demetriou, Lorenzo Fagiano, Roland Schmehl, Chris Vermillion, Mitchell Cobb
Publikováno v:
Annual reviews in control, 52
Airborne wind energy systems convert wind energy into electricity using tethered flying devices, typically flexible kites or aircraft. Replacing the tower and foundation of conventional wind turbines can substantially reduce the material use and, con
Externí odkaz:
https://explore.openaire.eu/search/publication?articleId=doi_dedup___::bec7752b792192e3baec6b6a064bc7da
https://hdl.handle.net/20.500.11850/520655
https://hdl.handle.net/20.500.11850/520655
Autor:
James C. Hermanson, David J. Olinger
Publikováno v:
2000 Annual Conference Proceedings.
Autor:
David J. Olinger
Publikováno v:
Mechanical Engineering. 139:38-43
This article discusses different features of underwater kites and its advantages in the turbine industry. The underwater kite moves fastest when it slaloms through the current in this way, much like a water skier. Electricity generated by the mounted
Publikováno v:
Volume 1: Fuels, Combustion, and Material Handling; Combustion Turbines Combined Cycles; Boilers and Heat Recovery Steam Generators; Virtual Plant and Cyber-Physical Systems; Plant Development and Construction; Renewable Energy Systems.
In this paper, a numerical simulation of three-dimensional motion of tether undersea kites (TUSK) for power generation is studied. TUSK systems includes a rigid-winged kite, or glider, moving in an ocean current in which a tethered kite is connected
Publikováno v:
ASME 2017 11th International Conference on Energy Sustainability.
In this paper, a numerical simulation of tether undersea kites (TUSK) used for power generation is undertaken. The effect of varying key design parameters in these systems is studied. TUSK systems consist of a rigid-winged kite, or glider, moving in
Publikováno v:
35th Wind Energy Symposium.
Publikováno v:
Ocean Engineering. 190:106390
The modeling and control of tethered undersea kites for power generation are discussed in this paper. In the first part, we apply the added mass model to underwater kite systems. In the second part, the stability of undersea kite systems is analyzed
Publikováno v:
Journal of Fluids Engineering. 138
The dynamic motion of tethered undersea kites (TUSK) is studied using numerical simulations. TUSK systems consist of a rigid winged-shaped kite moving in an ocean current. The kite is connected by tethers to a platform on the ocean surface or anchore