Buoy Dynamics in Subsurface Zones
The objective of this paper is to find the tension acting on a line that anchors a buoy submerged just beneath the surface of the ocean. Since the problem statement only gives the geometric shapes and dimensions of the buoy, we must use calculus to find its volume and surface area through integratio...
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University of South Florida
2009-01-01
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doaj-34493b527adc4cf281931228834cb6102020-11-24T22:43:43ZengUniversity of South FloridaUndergraduate Journal of Mathematical Modeling: One + Two2326-36522009-01-011210.5038/2326-3652.1.2.5Buoy Dynamics in Subsurface ZonesRandy GuillenThe objective of this paper is to find the tension acting on a line that anchors a buoy submerged just beneath the surface of the ocean. Since the problem statement only gives the geometric shapes and dimensions of the buoy, we must use calculus to find its volume and surface area through integration of the volumes and surfaces of revolution formed by the specific parts of the buoy along an axis. The volume and surface area determine the buoyancy force and force of gravity, the two forces acting on the buoy that affect the tension in the line. After calculating this data, we were able to conclude that the tension affecting the line would be approximately 78 kN if the buoy was made of 1% carbon steel with a thickness of 6.35 mm. This problem is useful in several engineering disciplines.http://scholarcommons.usf.edu/ujmm/vol1/iss2/5Buoy, Tension, Carbon steel |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Randy Guillen |
spellingShingle |
Randy Guillen Buoy Dynamics in Subsurface Zones Undergraduate Journal of Mathematical Modeling: One + Two Buoy, Tension, Carbon steel |
author_facet |
Randy Guillen |
author_sort |
Randy Guillen |
title |
Buoy Dynamics in Subsurface Zones |
title_short |
Buoy Dynamics in Subsurface Zones |
title_full |
Buoy Dynamics in Subsurface Zones |
title_fullStr |
Buoy Dynamics in Subsurface Zones |
title_full_unstemmed |
Buoy Dynamics in Subsurface Zones |
title_sort |
buoy dynamics in subsurface zones |
publisher |
University of South Florida |
series |
Undergraduate Journal of Mathematical Modeling: One + Two |
issn |
2326-3652 |
publishDate |
2009-01-01 |
description |
The objective of this paper is to find the tension acting on a line that anchors a buoy submerged just beneath the surface of the ocean. Since the problem statement only gives the geometric shapes and dimensions of the buoy, we must use calculus to find its volume and surface area through integration of the volumes and surfaces of revolution formed by the specific parts of the buoy along an axis. The volume and surface area determine the buoyancy force and force of gravity, the two forces acting on the buoy that affect the tension in the line. After calculating this data, we were able to conclude that the tension affecting the line would be approximately 78 kN if the buoy was made of 1% carbon steel with a thickness of 6.35 mm. This problem is useful in several engineering disciplines. |
topic |
Buoy, Tension, Carbon steel |
url |
http://scholarcommons.usf.edu/ujmm/vol1/iss2/5 |
work_keys_str_mv |
AT randyguillen buoydynamicsinsubsurfacezones |
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1725694969942900736 |