Introduction (Welcome!)

Similar documents
OCN 401 Biogeochemical Systems

OCN 401 Biogeochemical Systems

Introduction. OCN 623 Chemical Oceanography. 9 January TR 12:00 13:15 in MSB 315

Introduction. OCN 623 Chemical Oceanography. 10 January TR 10:30 11:45am in MSB 315

Global Warming leads to Underwater Deserts. SUHAS.E.P I Year.Dept of Mechanical engineering RVCE

Estuarine and Coastal Biogeochemistry

Estuarine and Coastal Biogeochemistry

Nutrients, Algal Blooms and Red Tides in Hong Kong Waters. Paul J. Harrison and Jie XU

Chapter 46 Ecosystems and Global Ecology

Chapter 6. Aquatic Biodiversity. Chapter Overview Questions

The next 2 weeks. Reading: IPCC (2007), Chap 7 (sections 7.4 and 7.5)

Impacts of Climate Change on Coastal Virginia and Chesapeake Bay:

Gas Guzzlers. Biological Pump

7.014 Lecture 20: Biogeochemical Cycles April 1, 2007

ENVIRONMENTAL QUALITY Fall Semester 2011

Ch. 7 Aquatic Ecology

Geochemistry GG325 Instructor: Prof. Ken Rubin

Exemplar for Internal Achievement Standard. Earth and Space Science Level 3

6 TH. Most of the Earth Is Covered with Water (2) Most Aquatic Species Live in Top, Middle, or Bottom Layers of Water (1)

Coastal studies in Long Term Ecological Research. Dan Reed Santa Barbara Coastal LTER

Examining Human Impacts on Global Biogeochemical Cycling via the Coastal Zone & Ocean Margins

Nitrogen Cycling, Primary Production, and Water Quality in the New River Estuary. Defense Coastal/Estuarine Research Program (DCERP)

GLOBAL WARMING LEADS TO UNDERWATER DESERTS" AND COASTAL DEAD ZONES

Environmental Science 101. Chapter 11 Water Pollution

Assessment and Modelling of Baltic Ecosystem Response (AMBER)

Oceanic CO 2 system - Significance

Nancy Rabalais Louisiana Universities Marine Consortium

Oceanography of Puget Sound (Salish Sea)

BIOGEOCHEMICAL CYCLES: The RECYCLING of MATERIALS through living organisms and the physical environment.

Climate Change, Global Warming & Ocean Biology. Doug Capone May 2008

LIMNOLOGY. Inland Water Ecosystems. JACOB KALFF McGill University. Prentice Hall. Upper Saddle River, New Jersey 07458

Nitrogen cycle Important steps

Program Title: Exploring Erosion Processes

Dead-Zones and Coastal Eutrophication: Case- Study of Chesapeake Bay W. M. Kemp University of Maryland CES Horn Point Laboratory Cambridge, MD

PRESS RELEASE. LOUISIANA UNIVERSITIES MARINE CONSORTIUM August 2, 2017 SUMMARY

Cycles of Matter. Slide 1 of 33. End Show. Copyright Pearson Prentice Hall

Ocean Acidification: Causes and Implications of Changing Ocean Chemistry

The Coastal Ocean Processes (CoOP) Program

Coastal Ecosystems Response to Climate Change and Human Impact in the Asia-Pacific Region (CERCCHI Project)

3 3 Cycles of Matter

3 3 Cycles of Matter Slide 1 of 33

Lakes, Primary Production, Budgets and Cycling

Lecture 1 Integrated water resources management and wetlands

Spatial Distribution of the Winter Nutrient Pool

Nitrogen Pollution and its Impacts

The Global Nitrogen Cycle

The Global Nitrogen Cycle, and Linkages Between C, N, and P Cycles

Environmental Geography

10/17/ Cycles of Matter. Recycling in the Biosphere. How does matter move among the living and nonliving parts of an ecosystem?

UPPER OCEAN METHANE DYNAMICS -- ANNUAL REPORT

biology Slide 1 of 39 End Show Copyright Pearson Prentice Hall

The Biosphere and Biogeochemical Cycles

Freshwater ecosystems

4-4 Aquatic Ecosystems

CO 2 (g) + H 2 O = H 2 CO 3 log K H = HCO 3 log K 1 = HCO - 3 = H CO 3 log K 2 = -9.0

MONDAY, 27 FEBRUARY 2017

Biology Summer Assignments

Landscape Scale Response to Climate Change : A Biogeochemical Perspective

EAEE E A BETTER PLANET BY DESIGN

13.5. Cycling of Matter. Water cycles through the environment.

MODELING NUTRIENT LOADING AND EUTROPHICATION RESPONSE TO SUPPORT THE ELKHORN SLOUGH NUTRIENT TOTAL MAXIMUM DAILY LOAD

BIOGEOCHEMICAL CYCLES INTRODUCTION THE CYCLING PROCESS TWO CYCLES: CARBON CYCLE NITROGEN CYCLE HUMAN IMPACTS GLOBAL WARMING AQUATIC EUTROPHICATION

Midway ISD Course: Aquatic Science

GLOBAL BIOGEOCHEMICAL CYCLES. GEOG/ENST 3331 Lecture 10 Turco: Chapter 10; Dearden and Mitchell: Chapter 4

Chapter 8: Aquatic Biodiversity

ENVST-UA 9226 Climate Change

Ecosystems: Nutrient Cycles

SECTION 1 FRESHWATER SYSTEMS UNIT 4: AQUATIC ECOLOGY

Life in Water. Chapter 3

SNC1D BIOLOGY 9/24/2013. SUSTAINABLE ECOSYSTEMS L Cycling of Matter in Ecosystems (P.22-27) Cycling of Matter in Ecosystems

Implications of global climate change for estuarine & coastal ecosystems (Gulf of Mexico in particular)

Answer THREE questions, at least ONE question from EACH section.

Potential Impacts of Climate Change and Sea Level Rise on South Florida s Coastal Wetlands

Elements essential for life also cycle through ecosystems.

Lakes, Primary Production, Budgets and Cycling Schlesinger and Bernhardt (2013): Chapter 8, p

STAAR Science Tutorial 55 TEK 8.11D: Human Dependence on Ocean Systems

To diagram the nitrogen cycle and provide examples of human actions that affect this cycle.

Determining the f ratio 11/16/2010. Incubate seawater in the presence of trace 15

Science of the Causes of Hypoxia Nancy Rabalais et al.

Buck Sutter Deputy Executive Director Gulf Coast Ecosystem Restoration Task Force. Contact:

Chesapeake Bay Nitrogen Assessments

River transport and chemistry. Lecture Outline

Part 3. Oceanic Carbon and Nutrient Cycling

Lakes: Primary Production, Budgets and Cycling. Lecture Outline

Unit 3: Ecology II Section 1: Environmental Systems and Nutrient Cycling

Ocean Water Buoyancy and Hypoxia in the Gulf of Mexico. Definitions. Hypoxia in the Headlines. Joe Smith. ExxonMobil Upstream Research Company

Global Climate Change

Global Climate Change

Background Information: Exploring the Nitrogen Cycle

Lakes: Primary Production, Budgets and Cycling

Nitrogen Cycling in the Sea

Unit 2: Ecology. Chapters 2: Principles of Ecology

Ocean Impacts and Projections

Projections of Climate Change and Some Implications for Ocean Ecosystems

Nutrients; Aerobic Carbon Production and Consumption

Autotrophs vs. Heterotrophs

Phytoplankton and bacterial biomass, production and growth in various ocean ecosystems

Guide 34. Ecosystem Ecology: Energy Flow and Nutrient Cycles. p://

HELSINKI COMMISSION HELCOM MONAS INDICATOR WORKSHOP 1/2004 Monitoring and Assessment Group First Meeting Helsinki, Finland, May 2004

Ecosystems. Trophic relationships determine the routes of energy flow and chemical cycling in ecosystems.

Transcription:

Introduction (Welcome!) OCN 401 Biogeochemical Systems

LECTURES Lectures will generally be given using PowerPoint presentations. As a convenience to students, copies of the PowerPoint slides will be handed out in class. However, do not be fooled into thinking that the handouts are a substitute for careful note-taking in class. Much of the useful information in this class will be in the form of classroom discussion of the subject material. Thus, students are expected to attend all lectures and to actively participate in class discussions. GRADING The final grade will be calculated as follows: Mid-term Exam - 25% Final Exam - 25% Term paper & oral presentation (including outline and first draft) - 30% Homework assignments (including peer reviews) and class participation - 20%

PAST TERM PAPER TOPICS (Note: These examples cannot be used this year) 2011 Arctic sea ice: Adaptations and ecological ramifications. Delivery of anthropogenic nitrogen to the coastal ecosystem on basaltic shorelines by submarine groundwater discharge. Biochar double whammy: Carbon sequestration and increased food production. Methane formation and oxidation in continental margin sediments. Sediment redox chemistry in mangrove forests: He eia Fishpond as a case study. Soil acidity and agricultural productivity of oxisols and ultisols in the tropics.

2010 Environmental and biogeochemical changes associated with the evolution of eukaryotes. Spatial and temporal variability of the biogeochemical response to storm runoff in southern Kaneohe Bay, Oahu, Hawai i. Lake Kivu: Catastrophe or gift of energy? Methane hydrates: Formation, stability, and effects on global climate. Effects on coral growth due to increased atmospheric CO 2. Mercury methylation in the marine environment. The effects of ocean acidification on the benthos. The generation, migration and climatic effects of coastal methane seeps. Oxygen minimum zones: Understanding the global biogeochemical characteristics of OMZs. The formation of biogenically derived marine aerosols, air-sea transport, and ecological effects. Factors influencing organic carbon sequestration in marine environments. The role of submarine groundwater discharge in coastal nutrient dynamics. Dammed nations, or damned ocean? The effect of dams on the coastal zone. Carbon capture and sequestration: Deep-sea CO 2 injection.

2009 Agricultural soil erosion: Carbon sink or source? Beachrock: Evidence of shoreline change. Bioaccumulation of toxic metals in fresh water and coastal marine systems: Arsenic, mercury and lead. Effect of agriculture on nutrient loading in the Mississippi River: The Gulf of Mexico Dead Zone. Forest fires and nutrient cycling. New hypoxic zone: A comparison with other dead zones and implications of ocean current changes in the northwest Pacific Ocean. Nutrient cycling within subsurface chlorophyll maximum and plankton thin layers. Carbon sequestration: A comparison between biological and geological approaches. Air pollution and atmospheric deposition in Istanbul. Nitrogen fixation in the North Pacific Ocean. Effects of submarine groundwater discharge on nutrient cycling and ecosystems.

2008 Sediment transport in coastal areas As cycling in marine environments Nutrient supply in Pac vs Atl eddies Biogeochem interactions btwn benthos & sed CO 2 sequestration in deep sea, acidification effects Estuarine nitrification & denitrification Nutrient uptake ratios & phytoplktn selection Biogeochem changes during PETM Environmental causes of ciguatera outbreaks Role of nutrients in HABs CH 4 production in natural systems Eutrophication: causes & oyster remediation Anoxic conditions related to nutrient input

EXAMS There will be a 75-minute mid-term exam on October 4 and a 2-hour final exam on December 13. The final exam will cover all of the semester s course material. Exams will cover the readings, lectures, and topics discussed in class. Exams will be open book (i.e., you can bring any printed material you like). Please bring a calculator. Copies of previous exams can be examined in the Oceanography Office (MSB 205); these can give you an idea of the types of questions to be expected. However, it is very unlikely that any exam questions will be repeated! No absences are allowed from any exam, except under circumstances totally beyond your control. Except for medical emergencies, excuses must be submitted and approved before the day of the exam.