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EARTH Workshop 2003
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- Are we currently experiencing an El Ni—o or La Ni—a/El Viejo
or La Vieja?
- Look at Pacific Decadal Oscillations (PDO) graphs (ocean temp)
- Look at historical data
- Predict when next oscillation will occur
- Global warming discussion
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- Long term study to go with study of online results (possibly
coupled with population study of planktivores)
- What happens to the excess biomass (environmental
consequences)?
- Students become various members of decision makers
(scientists, policy makers, naturalists, etc.) and discuss the
issue of iron fertilization based on research and collaboration
- Food chain dynamics—if we increase one level, how will
another level be affected?
- What triggers ice ages (inquiry project)?
- Investigate the CO2 and ocean interaction with
increasing CO2 from human activities
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- Create a video game that simulates the Immersion experience
using video clips from MBARI’s database
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- Small student groups interpreting same data sets—compare
results, interpretations; question why similar/different
- Graph data (ex. depth, temp, sal) and calculate speed of
sound; graph on excel or plot on paper
- Explore seasonal cycles in ocean
- Compare above/below surface condition and cycles
- Choose a specific organism(s), research their range of
tolerances, then use buoy data to predict where they might be
- Graph wind speed vs. wave height
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- Movement of pelagic organisms vs. high pollution areas
- Movement of pelagics with respect to temp/salinity data to
correlate with currents or ocean H2O masses
- After data has been mapped/plotted, students research what
human influences exist in these areas (MPAs, long-line fishing,
etc.)
- Correlate data for individual animals w/satellite imagery
telling SST or productivity (observatory or mooring data)
- Follow elephant seals out into the Pacific and hypothesize why
they go there; look for data to support idea
- Develop bingo-type approach using 4-5 phylum groups, animal
characteristic, name, etc.
- Use the animal tracking to examine gene flow in a population
(i.e., habitat overlap vs. isolation)
- Use fish tracks to calculate longitude of fish’s location
using time data (introduce chronometer)
- Use tuna data to teach homeothermy, life history; discussion
of fishery management
- Have each student choose an organisms to track and develop
life history
- Relate biological tracking to physical environment (look for
patterns)
- Are patterns of pelagic movement related to location of marine
sanctuaries (i.e., are they where they need to be)?
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- Easily implemented data that gives complex results that are
easy to discuss
- Use graphing directions/excel with other types of data
- Very useful to illustrate decadal change in local
waters—helps to understand the more complex issues of
understanding and measuring global warming
- Data analysis—causal vs. correlative relationships
- Using data sets to teach fundamentals of Excel, graphing and
forming conclusions
- Have students investigate data to determine lifecycles of
marine life along CA coast
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- Exercises to teach how temp and sal affect density
- Document each group’s work with many digital pics, students
use pics in class to take a more analytical look at their
process of problem solving and to connect their solution to the
concepts being studied
- Week long lesson:
- Monday—float/sink buoyancy
- Tuesday—density activity using different materials and
flotation
- Wednesday—discuss design of an ROV/item pick up
challenge
- Thursday—finalize design
- Friday—MBA ROV-in-a-box; design, build and test
- Extensions—Citizen Scientist data
- After the activity, use only one variable (i.e., just temp or
sal); put in story problem-solving format
- Have students use a field journal to sketch their design,
write hypothesis regarding why design will work/why it did or
didn’t
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- Students design a marine observatory of their own that samples
temp at different depths
- Design your own observatories (e.g., Tech Design Challenge)
and then look at relationships to real observatories (design and
function)
- Correlation of different data sets to predict/understand
marine events
- Show PowerPoint presentation and have students create their
own commercial for why we should study the ocean
- Do instruments alter phenomena (Schrœdinger's Cat)?
- Use Web sites for students to develop understanding of how
ocean is studied; develop into poster projects/career ideas
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- Research a particular animal from the annotations and
determine what ranges it occupies (depth, salinity, temp, etc.)
- Bingo-like board with 5 phyla as headings and 25 frame grabs;
using knowledge of the phyla, students can drag organisms under
correct phyla; immediate feedback given; time limit —clock;
that runs to avoid students guessing
- The pictures are just the beginning of the story—use frame
grabs that illustrate behaviors (ex. octopus and blenny sharing
nesting area) and find physical, chemical, biological (etc.)
factors that the nesting sites share
- Give groups of students different lists of organisms; students
use VARS to find out where the organisms are found and what
their environment is like (behavior, too); students could
compile information in a cross-sectional map of ocean
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- Good vector illustrator to show resulting motion
- Use data collection to predict quality of fishing/surfing,
etc. (using current, temp, winds, etc.)
- Create links to compare to other observatories or data
collection instruments
- Produce a daily forecast from the science class
- Use MB data to look for fish
- Use ‘Gone Fishing’ as intro or finale to further study of
ocean upwelling patterns
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- Plot patterns over time (physical) and study relative to
biological
- Develop scenarios (El Ni—o, oil spills, etc.) in which
students can problem solve to determine causes/effects using the
data
- Have students investigate how we are studying the CA coast and
who is doing it, why, what are we looking for
- When students see a strange occurrence (e.g., lots of
jellies), they can look through the data and see what might
trigger such an event
- Use physical parameters to predict where similar organisms may
be likely to be found in a different region
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- Offer several different views of organisms so students can
make detailed observations and speculate about function of
structures, adaptations, etc.
- Examine morphology/anatomical features vs. depth
- Develop field guide, accessible from Web site
- Taxonomy—use of dichotomous key
- Collaborate (or compete) with other students/schools
- Bingo-type naming game
- Have a way for students/participants to be able to check their
work
- Create levels of achievement for varying abilities
- After successfully ID-ing stills, further challenge by
providing video clips to find the species they have gotten
familiar with
- Have students investigate organisms’ shapes,
characteristics, adaptations
- Students/groups create their own field guides for a specific
phylum
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Last updated: Sep. 24, 2009
Full-hemisphere views of the Earth from GOES (Geostationary
Operational Environmental Satellites).
GOES satellites are built by NASA and operated by NOAA.
EARTH logo designed by Jennifer Trask, 2003
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