Miles Sundermeyer

Professor

SMAST / Estuarine & Ocean Sciences

508-999-8892

508-910-6371

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School for Marine Science & Technology West, New Bedford 110A


Education

1991University of CaliforniaB.A.
1995Massachusetts Institute of TechnologySc.M.
1998Massachusetts Institute of TechnologyPh.D

Teaching

Programs

Teaching

Courses

General topics of interest and relevance to civil & environmental engineering applications. Topics may include subject matter related to transportation engineering, geotechnical engineering, structures design, water resources, fluid mechanics, and/or environmental science and engineering. Laboratory and field exercises may supplement lecture material. Course can be repeated with change of content.

Application of statistical and data analysis methods to estuarine, ocean, and atmospheric sciences. Emphasis is on hands-on application and interpretation of methods to real oceanographic data using packaged software. Intended for students who require a working understanding of basic model/data analysis techniques. Familiarity with basic concepts/dynamics of at least one of the marine or atmospheric science related sub-disciplines is required.

Application of statistical and data analysis methods to estuarine, ocean, and atmospheric sciences. Emphasis is on hands-on application and interpretation of methods to real oceanographic data using packaged software. Intended for students who require a working understanding of basic model/data analysis techniques. Familiarity with basic concepts/dynamics of at least one of the marine or atmospheric science related sub-disciplines is required.

Application of statistical and data analysis methods to estuarine, ocean, and atmospheric sciences. Emphasis is on hands-on application and interpretation of methods to real oceanographic data using packaged software. Intended for students who require a working understanding of basic model/data analysis techniques. Familiarity with basic concepts/dynamics of at least one of the marine or atmospheric science related sub-disciplines is required.

A descriptive treatment of ocean atmosphere interactions, water properties, general wind driven and thermohaline circulation, waves and tides, and coastal processes. Simplified conceptual models demonstrate the important principles.

A descriptive treatment of ocean atmosphere interactions, water properties, general wind driven and thermohaline circulation, waves and tides, and coastal processes. Simplified conceptual models demonstrate the important principles.

A descriptive treatment of ocean atmosphere interactions, water properties, general wind driven and thermohaline circulation, waves and tides, and coastal processes. Simplified conceptual models demonstrate the important principles.

A descriptive treatment of ocean atmosphere interactions, water properties, general wind driven and thermohaline circulation, waves and tides, and coastal processes. Simplified conceptual models demonstrate the important principles.

A descriptive treatment of ocean atmosphere interactions, water properties, general wind driven and thermohaline circulation, waves and tides, and coastal processes. Simplified conceptual models demonstrate the important principles.

A descriptive treatment of ocean atmosphere interactions, water properties, general wind driven and thermohaline circulation, waves and tides, and coastal processes. Simplified conceptual models demonstrate the important principles.

Teaching

Online and Continuing Education Courses

Essential principles of ocean sciences. This course explores topics such as how the ocean and life in the ocean shape the features of the Earth; the ocean as a major influence on weather and climate; how the ocean supports a great diversity of life and ecosystems; and how the sustainability of ocean resources depends on our understanding of those resources and their potential and limitations. Various examples of ocean instruments used for sampling and measurements are introduced.
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Research

Research Activities

  • Collaborative Research: LIDAR Studies of Lateral Dispersion in the Seasonal Pycnocline
  • LIDAR and Numerical Modeling Studies of Small-Scale Lateral Dispersion in the Ocean
  • High-resolution mapping of dye release experiments using airborne LIDAR
  • Laboratory studies of stirring by small-scale geostrophic motions
  • Numerical simulations of stirring by the relaxation of diapycnal mixing events

Research

Research Interests

  • Small-scale vertical and horizontal mixing processes
  • Dye release and Lagrangian drifter studies
  • Numerical modeling of two- and three-dimensional turbulent flows
  • Numerical modeling of physical and biological interactions

Select publications

Brunner-Suzuki, A.-M.E.G, M.A. Sundermeyer, M.P. Lelong (2014).
The vortical mode, internal waves, and inverse energy cascade
Journal of Physical Oceanography

Radlinski, M. K., M. A. Sundermeyer, J. J. Bisagni, and S. X. Cadrin (2013).
Spatial and temporal distribution of Atlantic mackerel, Scomber scombrus, along the northeast coast of the United States
ICES Journal of Marine Science, 70(6), 1151-1161.

Brunner-Suzuki, A-M. E. G., M. A. Sundermeyer, and M.P. Lelong (2012).
Vortex stability in a large-scale internal wave shear
Journal of Physical Oceanography, 42, 1668-1683.

Dr. Sundermeyer earned his B.A. in 1991 from the University of California Santa Cruz with a double major in Mathematics and Physics. He earned his Ph.D. in 1998 from the MIT/WHOI Joint Program in Physical Oceanography, where he studied processes controlling lateral dispersion in the ocean. Following his PhD, he worked for two years as a Postdoctoral Fellow at the Center for Marine Science and Technology at UMass Dartmouth performing numerical modeling related to fish stock assessment, before signing on as Faculty in 2001. With now more than 25 years’ experience studying problems relating to ocean mixing, Dr. Sundermeyer’s primary ongoing research interests include vertical and horizontal mixing processes, dye release and Lagrangian drifter studies, remote and autonomous sensing, numerical modeling of two- and three-dimensional turbulent flows, and numerical modeling of physical and biological interactions. His research combines observations with idealized analytical and numerical models to test hypotheses about specific physical oceanographic processes. To date he has spent more than 180 days at sea, with field observations serving as the foundation of his work. He then uses theoretical, numerical, and laboratory studies to understand the underlying physical processes that control ocean mixing. Dr. Sundermeyer has published more than 25 peer reviewed publications, and has authored/co-authored more than 75 conference presentations. As a Professor, he has advised or co-advised 10 MS students, and 6 PhD students, and served as an academic/thesis committee member for an additional 8 MS and 6 PhD students. He currently also serves as Graduate Program Director at the School for Marine Science and Technology / UMass Intercampus Marine Science program, and is also a long-time Guest/Visiting investigator at the Woods Hole Oceanographic Institution.

External links

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