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Your search keyword '"S.E. Humphris"' showing total 20 results
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20 results on '"S.E. Humphris"'

1. Site U1527

Author

C.E.J. de Ronde, S.E. Humphris, T.W. Höfig, P.A. Brandl, L. Cai, Y. Cai, F. Caratori Tontini, J.R. Deans, A. Farough, J.W. Jamieson, K.P. Kolandaivelu, A. Kutovaya, J.M. Labonté, A.J. Martin, C. Massiot, J.M. McDermott, I.M. McIntosh, T. Nozaki, V.H. Pellizari, A.G. Reyes, S. Roberts, O. Rouxel, L.E.M. Schlicht, J.H. Seo, S.M. Straub, K. Strehlow, K. Takai, D. Tanner, F.J. III Tepley, and C. Zhang

Published
2019

2. Site U1531

Author

C.E.J. de Ronde, S.E. Humphris, T.W. Höfig, P.A. Brandl, L. Cai, Y. Cai, F. Caratori Tontini, J.R. Deans, A. Farough, J.W. Jamieson, K.P. Kolandaivelu, A. Kutovaya, J.M. Labonté, A.J. Martin, C. Massiot, J.M. McDermott, I.M. McIntosh, T. Nozaki, V.H. Pellizari, A.G. Reyes, S. Roberts, O. Rouxel, L.E.M. Schlicht, J.H. Seo, S.M. Straub, K. Strehlow, K. Takai, D. Tanner, F.J. III Tepley, and C. Zhang

Published
2019

3. Site U1530

Author

C.E.J. de Ronde, S.E. Humphris, T.W. Höfig, P.A. Brandl, L. Cai, Y. Cai, F. Caratori Tontini, J.R. Deans, A. Farough, J.W. Jamieson, K.P. Kolandaivelu, A. Kutovaya, J.M. Labonté, A.J. Martin, C. Massiot, J.M. McDermott, I.M. McIntosh, T. Nozaki, V.H. Pellizari, A.G. Reyes, S. Roberts, O. Rouxel, L.E.M. Schlicht, J.H. Seo, S.M. Straub, K. Strehlow, K. Takai, D. Tanner, F.J. III Tepley, and C. Zhang

Published
2019

4. Site U1529

Author

C.E.J. de Ronde, S.E. Humphris, T.W. Höfig, P.A. Brandl, L. Cai, Y. Cai, F. Caratori Tontini, J.R. Deans, A. Farough, J.W. Jamieson, K.P. Kolandaivelu, A. Kutovaya, J.M. Labonté, A.J. Martin, C. Massiot, J.M. McDermott, I.M. McIntosh, T. Nozaki, V.H. Pellizari, A.G. Reyes, S. Roberts, O. Rouxel, L.E.M. Schlicht, J.H. Seo, S.M. Straub, K. Strehlow, K. Takai, D. Tanner, F.J. III Tepley, and C. Zhang

Published
2019

5. Site U1528

Author

C.E.J. de Ronde, S.E. Humphris, T.W. Höfig, P.A. Brandl, L. Cai, Y. Cai, F. Caratori Tontini, J.R. Deans, A. Farough, J.W. Jamieson, K.P. Kolandaivelu, A. Kutovaya, J.M. Labonté, A.J. Martin, C. Massiot, J.M. McDermott, I.M. McIntosh, T. Nozaki, V.H. Pellizari, A.G. Reyes, S. Roberts, O. Rouxel, L.E.M. Schlicht, J.H. Seo, S.M. Straub, K. Strehlow, K. Takai, D. Tanner, F.J. III Tepley, and C. Zhang

Published
2019

6. Vehicles for Deep Sea Exploration

Author

S.E. Humphris

Subjects
Optical fiber cable, Engineering, business.industry, Remotely operated underwater vehicle, Remotely operated vehicle, Control room, law.invention, Intervention AUV, Aeronautics, Deep-sea exploration, law, Underwater, A fibers, business, Marine engineering
Abstract

The technological breakthroughs in deep-sea vehicle design over the last 40 years have resulted in unprecedented access to the deep ocean. For many years, researchers have towed instruments near the seafloor to collect various kinds of data remotely. Since the 1960s, humans have ventured into the deep ocean in submersibles or human-occupied vehicles (HOVs). These battery-operated vehicles allow two to four individuals to descend into the ocean for periods of typically 8–10 h. Remotely operated vehicles (ROVs) are unoccupied vehicles tethered to the support ship. Similar to HOVs in capabilities, ROVs are controlled by a pilot on board the ship who communicates with the vehicle via a fiber optic cable. The cable also transmits real-time images and data from the ROV to the shipboard control room. Autonomous underwater vehicles (AUVs) are unoccupied, untethered vehicles preprogrammed and deployed to travel through the ocean without intervention from human operators. They can run missions of many hours or days on their battery power and can travel many kilometers collecting data of various types. Hence, AUVs are frequently used to identify regions of interest for further exploration by HOVs and ROVs. In the future, AUVs will play an important role in the development of long-term seafloor observatories.

Published
2009

7. The SSV Corwith Cramer: Sea Education Association's new sailing research vessel

Author

C.E. Lea, R.J. Wilber, and S.E. Humphris

Subjects
Engineering, Meteorology, business.industry, Beam (nautical), Sampling (statistics), business, Bathythermograph, Coast guard, Marine engineering, Deck, Research vessel
Abstract

Summary form only given. With the launching of the SSV Corwith Cramer, the Sea Education Association of Woods Hole, Mass. now operates two sailing vessels which serve as research platforms for sea semesters. The Cramer, which is the first vessel built to meet US Coast Guard regulations for sailing school vessels, is modeled closely after the schooner Westward. A variety of design modifications and equipment changes greatly improve her performance as a research vessel. Cramer's greater length (135 feet) and beam (26 feet) serve to increase speed, stability and working deck area. The vessel's onboard research equipment consists of standard oceanographic sampling gear such as plankton nets, trawls, cores, dredges and Nisken bottles. In addition, the Cramer carries a variety of modern sampling and analytic gear including a 3 and 12-kHz PDR, digital recording BT (bathythermograph) and CTD (conductivity, temperature, and density) measurement, salinometer, fluorometer, spectrophotometer, and four microcomputers for data recovery, processing, and storage. >

Published
2003

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