Detailed stress analysis of a spherical acrylic submersible by 3-D finite element modeling

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Contributors
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American Society of Mechanical Engineers
Date Issued
1999
Note

As the demand increases for ocean exploration to 3000 ft. (914.4 m) depth to collect samples,
to study the ocean surfaces, the problem of developing cracks at the interface of these manned acrylic submersibles following few hundred dives have become a common phenomenon. This has drawn considerable attention for reinvestigation of the spherical acrylic submersible in order to overcome this crack generation problem at the interface.

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Type
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Extent
14 p.
Identifier
FA00007504
Additional Information
As the demand increases for ocean exploration to 3000 ft. (914.4 m) depth to collect samples,
to study the ocean surfaces, the problem of developing cracks at the interface of these manned acrylic submersibles following few hundred dives have become a common phenomenon. This has drawn considerable attention for reinvestigation of the spherical acrylic submersible in order to overcome this crack generation problem at the interface.
Florida Atlantic University. Harbor Branch Oceanographic Institute contribution 1316
This manuscript is an author version and
may be cited as: Das, P. S. (1999). Detailed stress analysis of a spherical acrylic submersible by 3-D
finite element modeling. In Y. W. Kwon & H. H. Chung (Eds.), Recent advances in solids and structures
1999: presented at the ASME International Mechanical Engineering Congress and Exposition,
November 14-19, 1999, Nashville, Tennessee, PVP – v.398 (pp. 153-165). New York, NY: American
Society of Mechanical Engineers.
Date Backup
1999
Date Text
1999
Date Issued (EDTF)
1999
Extension


FAU

IID
FA00007504
Organizations
Person Preferred Name

Das, Partha S.
Physical Description

pdf
14 p.
Title Plain
Detailed stress analysis of a spherical acrylic submersible by 3-D finite element modeling
Origin Information

1999
American Society of Mechanical Engineers

New York, NY

Place

New York, NY
Title
Detailed stress analysis of a spherical acrylic submersible by 3-D finite element modeling
Other Title Info

Detailed stress analysis of a spherical acrylic submersible by 3-D finite element modeling