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11:628:320 Dynamics of Marine Ecosystems 2019

11:628:320 Dynamics of Marine Ecosystems 2019. Instructors : Liz Sikes (geochemistry) 848-932-3257 sikes@marine.rutgers.edu Heidi Fuchs (biology) 848-932-3252 hfuchs@marine.rutgers.edu John Wilkin (physics) 848-932-3366 jwilkin@rutgers.edu TA: Austin Grubb

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11:628:320 Dynamics of Marine Ecosystems 2019

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  1. 11:628:320 Dynamics of Marine Ecosystems 2019 • Instructors: • Liz Sikes (geochemistry) • 848-932-3257 sikes@marine.rutgers.edu • Heidi Fuchs (biology) 848-932-3252 hfuchs@marine.rutgers.edu • John Wilkin (physics)848-932-3366 jwilkin@rutgers.edu • TA:Austin Grubb • austin.grubb@marine.rutgers.edu • 848-932-3267 Class web site: http://marine.rutgers.edu/dmcs/ms320

  2. Class Philosophy: Oceanography is an interdisciplinary scientific field. The physics, chemistry and biology are all coupled. Therefore teaching the physics, chemistry, and biology as separate sections does a poor job to explain the how the World Ocean works. We will try hard to explain the physics, chemistry, and biology, while emphasizing the interactions between them. Lectures will focus on several themes: Theme 1. Vertical structure of the open ocean Theme 2: Coastal Upwelling Theme 3: Equatorial Circulation and El Nino Theme 4: Land-Ocean Interactions Theme 5: Global climate system Theme 6: Acoustics

  3. Grading Totals 4 exams: 15% each 60% 4 home works: 5% each 20% 1 review paper: 20% 20% Exams: Cover the material provided in class. Not cumulative (though concepts may be). Last exam will be on the final day. Homework: Do them all. Late homework will lose precious points even if only a day late. Term paper: 1) interdisciplinary topics, 2) must be connected to an aspect covered in the course, 3) must demonstrate linkages between at least 2 disciplines, 4) must use recent (5 years) PRIMARY literature, 5) must get topic cleared with an instructor. Examples: foodweb interactions at shelf/slope front, iron fertilization, CO2 increase and calcified plankton. Be original but not extreme. Reference your work thoroughly (Do NOT plagiarize). Pop quizzes: Extra credit that gets added to homework points. (These quizzes help US and you.)

  4. Home work: • Home work assignments are handed out for each section. The home work might have essays, calculations etc. It will be more than just a short answer. You will have at least a week to do the home work. • Examples of past homework assignments: • Consider the simple 3-box NPZ (nutrient-phytoplankton-zooplankton) model described in class. Question: describe your understanding of each of the numbered terms in the N equation. • Describe the physical, biological and geochemical features that are typical of the major eastern boundary coastal upwelling regions of the world. • Come to class – listen – take notes – ask questions – think – ask more questions – and you will comprehend the interactions between physics, geochemistry and ecology that are so vital to the Dynamics of Marine Ecosystems

  5. Attendance: the data

  6. We expect you to take notes • Don’t waste time copying slides • Do organize notes for reference to slides • Listen and note important points • Focus on understanding processes • Things we draw on the board are important • Ask questions!

  7. Consider Cornell notes system • “Recall column” for memory cues, e.g. quick-sketch graphs or questions • “Notes column” for recording main ideas • ”Summary” section for summarizing main points of lecture, ideally right after lecture Also good to note slide number!

  8. Graphing: ocean is 3-dimensional Standard 3D coordinate system: x = longitude y = latitude z = depth z y x

  9. 3 ways of graphing ocean data: y • Map view (aka plan view) Data vs. x and y • Vertical profile Data vs. z • Cross section Data vs. x (or y) and z x z x z

  10. Surface temperature of the ocean Temperature Latitude Longitude

  11. Surface salinity of the ocean Salinity Latitude Longitude

  12. Vertical profiles of temperature Depth (m)

  13. Vertical profiles of temperature and salinity z = Depth (m)

  14. Vertical cross section of temperature in the Atlantic Ocean Depth (m) Temperature Latitude

  15. Latitudinal cross section of salinity in the Atlantic Ocean Depth (m) Salinity Latitude

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