COURSE DESCRIPTION - GRADES 9-12, ADULT
Subject Area: Science
Course Number: 2002500
Course Title: Marine Science I
Credit:
1.0
Will meet graduation requirements for
Science
Major Concepts/Content The purpose of this
course is to provide an overview of the marine environment.
The content should include, but not be
limited to, the following:
·
the nature of science
·
the origins of the oceans
·
the chemical, physical, and geological
aspects of the marine environment
·
ecology of various sea zones
·
marine communities
·
the diversity of marine organisms
·
characteristics of major marine ecosystems
·
characteristics of major marine
phyla/divisions
·
the interrelationship between man and the
ocean
Special Note. Marine Science 1(2002500)
and Marine Science II (2002520) are being offered in place of Marine Biology
(2000400) and Oceanography (2001370). The two-year Marine Science course
sequence facilitates an ongoing, integrated study of all aspects of the marine
environment, including physical, chemical, and biological processes.
A student may not receive more than two
credits for any combination of Marine Science I, Marine Science II, Marine
Biology, and Oceanography. Students earning credit in Marine Science I may not
earn credit in Marine Science I Honors.
Laboratory investigations of selected
topics in the content, which also include the use of scientific method,
measurement, laboratory apparatus, and safety procedures, are an integral part
of this course.
Course Requirements. These requirements
include, but are not limited to, the benchmarks from the Sunshine State
Standards that are most relevant to this course. Benchmarks correlated with a
specific course requirement may also be addressed by other course requirements
as appropriate. Some requirements in this course are not fully addressed in the
Sunshine State Standards.
Benchmarks from Science, Strand H, should
not be taught and assessed in isolation, but should be combined with other
benchmarks listed for this course.
After successfully completing this course,
the student will:
1. Apply knowledge of the nature of
science and scientific habits of mind to solve problems, and employ safe and
effective use of laboratory and field technologies.
·
SC.H. 1.4.1 know that investigations are
conducted to explore new phenomena, to check on previous results, to test how
well a theory predicts, and to compare different theories.
·
SC.H. 1.4.2 know that from time to time,
major shifts occur in the scientific view of how the world works, but that more
often, the changes that take place in the body of scientific knowledge are
small modifications of prior knowledge.
·
SC.H. 1.4.3 understand that no matter how
well one theory fits observations, a new theory might fit them as well or
better, or might fit a wider range of observations, because in science, the
testing, revising, and occasional disregarding of theories, new and old, never
ends and leads to an increasingly better understanding of how things work in
the world, but not to absolute truth.
2. Describe the unique physical
characteristics of the marine environment.
·
SC.D. 1.4. 1 know how climatic patterns on
Earth result from an interplay of many factors (Earth's topography, its rotation
on its axis, solar radiation, the transfer of heat energy where the atmosphere
interfaces with lands and oceans, and wind and ocean currents).
·
SC.D. 1.4.2 know that the solid crust of
Earth consists of slow-moving, separate plates that float on a denser, molten
layer of Earth and that these plates interact with each other, changing the
Earth's surface in many ways (e.g., forming mountain ranges and rift valleys,
causing earthquake and volcanic activity, and forming undersea mountains that
can become ocean islands).
3. Demonstrate knowledge of marine
communities, food chains, and food webs.
·
SC.E. 1.4.3 know the various reasons that
Earth is the only planet in our Solar System that appears to be capable of
supporting life as we know it.
·
SC.G.1.4.1 know of the great diversity and
interdependence of living things.
·
SC.G. 1.4.2 understand how the flow of
energy through an ecosystem made up of producers, consumers, and decomposers
carries oU1 the processes of life and that some energy dissipates as heat and
is not recycled.
·
SC.G.1.4.3 know that the chemical elements
that make up the molecules of living things are combined and recombined in
different ways.
4. Describe the physical and biological
characteristics of the planktonic, benthic, and nektonic regions of the oceans.
·
SC.F. 1.4.1 know that the body processes
involve specific biochemical reactions governed by biochemical principles.
·
SC.F. 1.4.2 know that body structures are
uniquely designed and adapted for their function.
·
SC.G.2.4.4 know that the world ecosystems
are shaped by physical factors that limit their productivity.
5.
Explain how the physical and chemical properties of seawater and the
geology of the ocean basin shape the nature of oceanic life.
·
SC.B.1.4.1 understand how knowledge of
energy is fundamental to all the scientific disciplines (e.g., the energy
required for biological processes in living organisms and the energy required
for the building, erosion, and rebuilding of the Earth).
·
SC.B.1.4.2understand that there is
conservation of mass and energy when matter is transformed.
6.
Compare the diverse characteristics of
representatives of the major phyla/divisions represented in marine systems.
·
SC.G.2.4.3 understand how genetic
variation of offspring contributes to population control in an environment and
that natural selection ensures that those who are best adapted to their
surroundings survive to reproduce.
7.
Describe the interrelationship between man
and the ocean environment and the need for protection of the natural systems on
Earth.
·
SC.D.2.4.1 understand the
interconnectedness of the systems on Earth and the quality of life.
·
SC.G.2.4.5 understand that the amount of
life any environment can support is limited and that human activities can
change the flow of energy and reduce the fertility of the Earth.
·
SC.G.2.4.6 know the ways in which humans
today are placing their environmental support systems at risk (e.g., rapid
human population growth, environmental degradation, and resource depletion).
8.
Describe the present and potential resources of the ocean.
·
SC.G.2.4.1 know that layers of energy-rich
organic materials have been gradually turned into great coal beds and oil pools
(fossil fuels) by the pressure of the overlying earth and that humans bum
fossil fuels to release the stored energy as heat and carbon dioxide.
·
SC.G.2.4.2 know that changes in a
component of an ecosystem will have unpredictable effects on the entire system
but that the components of the system tend to react in a way that will restore
the ecosystem to its original condition.
9.
Describe how marine science interacts with technology and society.
·
SC.H.3.4.5 know that the value of a
technology may differ for different people and at different times.
·
SC.H.3.4.6 know that scientific knowledge
is used by those who engage in design and technology to solve practical
problems, taking human values and limitations into account.
Unit
Outline with Sunshine State Standards
Marine Science 2002-2003
Unit Outline 1st
Semester “Worlds
Oceans”
1st
Quarter Benchmarks
1. Nature of Marine Science Strand
H (ongoing)
A) Scientific Method SCH 1.4.1
B) Metric Measurement SCH 1.4.2
C) History of Oceanography (pp.1-24) (Prologue) SCH 1.4.3
D) Hurricanes (p.
203)
2. The Water Planet (pp. 26-46) SCD
1.4.1
1.1 The origin of the Earth SCD 1.4.2
1.2 Age and Time SCE
1.4.4
1.3 The Shape of the Earth
1.4 Location - Latitude
and Longitude
1.5 Earth: The Water
Planet
1.6 Practical
Considerations: Modern Navigation
3. The Oceans and the Atmosphere (pp. 186-210) SCD 1.4.1
7.1 The Atmosphere
7.2 Atmospheric Gases of
Global Concern
7.3 The Role of Sulfur
Compounds
7.4 The Atmosphere in
Motion
7.5 Modifying the Wind
Bands
7.6 “Hurricanes”
7.7 El’Nino
7.8 Practical
Considerations: Storm Tides and Storm Surges
4. The Properties of Water (pp. 118-136) SCA 2.4.2
4.1 The Water Molecule SCA
2.4.3
4.2 Changes of State SCA
2.4.5
4.3 Heat Capacity SCG
1.4.3
4.4 Cohesion, Surface
Tension, & Viscosity
4.5 Compressibility
4.6 Density
4.7 Dissolving Ability
4.8 Transmission of
Energy
4.9 Practical
Considerations: Ice and Fog
5. The Seafloor (pp.
50-77) SCD
1.4.1
2.1 Bathymetry of the
Seafloor SCD
1.4.2
(Continental Margin, Ocean Floor, Ridges, Rises, and
Trenches)
2.2 Measuring the Depths SCH 3.4.5
2.3 Sediments- Oozes,
Deposits, and Sampling SCH
3.4.6
2.4 Practical
Considerations: Seabed Resources
2nd Quarter
1. Salt Water (pp.
140-155) SCA
2.4.2
5.1 The Salts SCG
1.4.3
5.2 The Gases
5.3 Other Substances (nutrients)
5.4 Practical
Considerations: Salt and Water
2. The Not-So-Rigid Earth (pp. 84-115) SCB
1.4.1
3.1 Interior of the
Earth SCD
1.4.2
3.2 The Lithosphere
3.3 The Movements of
Continents
3.4 Plate Tectonics
3.5 The Motion of Plates
3.6 The History of the
Continents
3.7 Current Research
3.8 Practical
Considerations: Ocean Waste Management
3. The Currents (pp.
212-226) SCB
1.4.7
8.1 Ocean Surface
Currents SCB
1.4.1
8.2 Gyres and Current
Flow SCB
2.4.1
8.3 Eddies SCC
1.4.1
8.4 Convergence and
Divergence
8.5 Global Circulation
Changes
8.6 Measuring the
Currents
8.7 Practical
Considerations: Energy From Currents
4. The Waves (pp.
232-252) SCA
2.4.6
9.1 How a Wave Begins SCB
1.4.1
9.2 Anatomy of a Wave SCB
1.4.7
9.3 Wave Motion SCB
2.4.1
9.4 Wave Speed SCC
2.4.6
9.5 Deep-Water Waves
9.6 Wave Height
9.7 Shallow-water Waves
9.8 The Surf Zone
9.9 Tsunamis
9.10 Internal Waves
9.11 Standing Waves
9.12 Practical
Considerations: Energy From Waves
5. The Tides (pp.
260-282) SCB
1.4.7
10.1 Tide Patterns SCE
1.4.1
10.2 Tide Levels
10.3 Tidal Currents
10.4 Equilibrium Tidal
Theory
10.5 Dynamic Tidal
Analysis
10.6 Tidal Bores
10.7 Predicting Tides
and Tidal Currents
10.8 Practical
Considerations: Energy from Tides
6. Coasts, Shores, and Beaches (pp.284-307) SCD
1.4.1
11.1
Major Zones SCD
1.4.2
11.2
Types of Coasts SCD
2.4.1
11.3
Anatomy of a Beach
11.4
Beach Types
11.5
Beach Dynamics
11.6
Practical Considerations: Case Histories of two Harbors
7. Bays and Estuaries (pp. 308- 328) SCD 1.4.1
12.1
Estuaries SCD
1.4.2
12.2
Embayments with High Evaporation Rates SCD
2.4.1
12.3
Flushing Time
12.4
Degradation of Coastal Environments
12.5
Marine Wetlands
12.6 Practical
Considerations: Case Histories
8. Production and Life (pp. 348-362) SCD 2.4.1
14.1
Primary Production SCG
1.4.2
14.2
Controls on Primary Production SCG
2.4.4
14.3
Global Primary Production SCG
2.4.5
14.4
Measuring Primary Production
14.5
Total Production- Food chains and food webs
14.6
Practical Consideration: Human Concerns
Marine Science 2002-2003
Unit Outline 2nd
Semester “Marine Life”
3rd
Quarter
1. Marine Primary Producers SCF
1.4.2
Chapter 4 (pp. 93-127)
Phytoplankton (algae) SCG
1.4.1
Dinophyta SCG
1.4.2
Benthic Autotrophs-
Seaweeds, diatoms, etc SCG
2.4.4
2. An Overview of Marine Animals (pp. 61-91)
Taxonomic Classification SCF
1.4.1
Protozoans SCF
1.4.2
Porifera SCG
1.4.3
Cnidaria SCG
2.4.4
Ctenophora
Platyhelminthes
Nematoda
Annelida
Lophophore bearers
Mollusks
Arthropoda
Echinodermata
3. Zooplankton (pp.
265-277) SCF
1.4.1
Zooplankton
Groups SCF
1.4.2
Pelagic Environment SCG
2.4.4
Vertical Migration
Feeding
4. The Nekton (pp.
283-324) SCF
1.4.1
Vertebrates SCF
1.4.2
Buoyancy SCG
2.4.4
Locomotion
Migration
Sensory
reception
Reproduction
4th
Quarter
5. Benthic Communities (pp. 189-207) SCF
1.4.1
Living
Conditions on the Bottom SCF
1.4.2
Seafloor
characteristics SCG
2.4.3
Subtidal
Conditions SCG
2.4.4
6. Fisheries (pp.369-390) SCF
1.4.1
Survey
of Marine Food Species SCF
1.4.2
Major
Fishing Areas SCF
2.4.1
Lampreys SCF
2.4.2
Sharks SCF
2.4.3
Fish
7. Marine Tetrapods (pp. 329-364) SCF
1.4.1
Marine
Birds and Reptiles SCF
1.4.2
Marine
Mammals SCF
1.4.3
Cetaceans SCG
2.4.3
Pennipeds