GENERAL
SCIENCE
| Textbook: Conceptual Physical Science | Grade Level: 9 |
| ISBN# 321035402 | Length of Course: Year |
| Publisher: Prentice-Hall | Credit: 1 |
| Prerequisite: None |
General Science is
designed to bridge the gap between junior high and high school science
programs. It directly addresses Alaska
Content Standards A-1
to A-8, A-15, and A-16. These
state standards describe the understanding of scientific facts, concepts,
principles, and theories. In addition,
this course provides an opportunity to observe our unique local environment.
General Science should be
investigative and involve students in the scientific process.
·
Students should develop their own questions and perform
investigations
·
Select and use appropriate tools and technology (such as
computer-linked probes, spreadsheets, and graphing calculators) to perform
tests, collect data, analyze relationships, and display data
·
Identify and communicate sources of unavoidable
experimental error
·
Formulate explanations by using logic and evidence
·
Distinguish between hypothesis and theory as scientific
terms
·
Read and interpret topographic and geological maps
·
Analyze the locations, sequences, or time intervals that
are characteristic of natural phenomena (e.g., relative ages of rocks,
locations of planets over time)
·
Recognize the issues of statistical variability and the
need for controlled tests
·
Recognize the cumulative nature of scientific evidence
·
Know that when an observation does not agree with an
accepted scientific theory, the observation is sometimes mistaken or fraudulent
and the theory is sometimes wrong.
·
Employ strict adherence to safety procedure in conducting
scientific investigations
Alaska
Content Standards
Standard A.
A student should understand scientific facts, concepts,
principles,
and theories.
Standard B.
A student should possess and understand the skills of
scientific
inquiry.
Standard C.
A student should understand the nature and history of
science.
Standard D.
A student should be apply scientific knowledge and skills
to
make reasoned decisions about the use of science and
scientific
innovations.
A 1. Students develop, create and use models to
demonstrate their understanding of the nature of particles and interactions on
the molecular, atomic, and subatomic levels, and how these explain the physical
and chemical properties of matter.
A 2. Students describe and explain a common chemical
reaction including atomic chemical bonding, and reaction rates.
A 3. Students use secondary research to develop models
that explain the origin and continued development of the solar system, galaxy,
and the universe.
A 4. Students explain tides, weather, seasons, and phases
of the moon including the appropriate concepts of gravity, the Coriolus effect,
role of the atmosphere, and Earth’s rotation and revolution.
A 5. Students explain how gravity and electromagnetic
forces operate according to simple principles and how they can be used in
applications such as mineral resource prospecting, satellites, space travel and
affect natural phenomena such as the aurora.
A 6. Students explain common examples of linear and
rotational motion using Newton’s Laws of Motion.
A 7. Students explain short-term and long-term
transformations of the earth’s surface, including those caused by living things
and human intervention.
A 8a. Students explain how the absorption or emission of
energy is related to physical, chemical, and nuclear reactions and explains how
these reactions can be
quantitatively accounted for in terms of changes in arrangements of neutrons,
protons, electrons, atoms or molecules.
A 8b. Students measure energy transfers that take place
around them and use the data to examine The Law of Conservation of Energy.
A 15. Students recommend a management strategy to solve a
local environmental problem related to resource utilization such as fish and
game, building permits, mineral rights, and land use policies.
A 16. Students describe how studying radioactive decay,
nuclear fission, and fusion can provide evidence confirming the Law of
Conservation of
Matter and
Energy.
B 1. Students collect, analyze, and interpret qualitative
and quantitative data, develop models, and suggest further experimentation to
investigate and explain everyday phenomena in their world.
B 2. Students conduct primary scientific research and use
sophisticated instrumentation technology to design, modify, and conduct a
series of experiments related to a multifaceted problem in the natural or
designed world.
B 3. Students conduct research and media searches that
highlight multiple forms of inquiry and multiple solutions to complex problems.
B 4. Students work in collaborative groups to collect and
analyze their experimental results.
They conduct media searches and use the information to support their
experimental design.
B 5. Students discuss the validity of assertions made in
primary and secondary scientific sources by analyzing and critiquing the data
used as evidence to support those assertions.
B 6. Students examine laboratory and community safety
procedures, identify how an individual affects the safety of the group, and
practice safe behavior in the classroom and laboratory.
C 1. Students can differentiate between facts,
observations, concepts, principles, laws, and theories, as used in science
publications.
C 2. Students evaluate the validity of experimental
findings.
C 3. Students describe how human society, culture,
history, and environment have influenced the development of scientific
thinking.
C 4. Students investigate societal (non-scientific)
beliefs of multiple communities cultures regarding a phenomenon.
C 5. Students use personal and group experiences as well
as media searches to synthesize data derived from multiple perspectives to
study a multifaceted problem related to state, regional, or global concerns and
post their results for review.
C 6. Students describe how current research is changing
accepted scientific theories.
C 7. Students identify the research, contributions,
discoveries, and collaborative efforts currently underway to solve a
scientific, industrial, mechanical, agricultural, or medical problem.
C 8. Students analyze the evidence used to support
current or historic scientific understanding of an issue as well as the
evidence used to support ideas contrary to current scientific understanding.
D 1. Students investigate a regional or global issue;
identify and evaluate the current solutions.
D 2. Students research a current problem and conduct a
cost and benefit analysis associated with both the problem and potential
solutions.
D 3. Students conduct independent research investigations
about a community issue and propose a solution based on their original data.
D 4. Students evaluate scientific and societal impacts of
developing technologies.
D 5. Students propose a scientifically or technologically
based change to public policy at the local, state, or national level and share
their proposal with the audience of those affected by the issue as well as
those involved in policy-making decisions.
D 6. Students work collaboratively to design a solution
to a problem, develop an evaluation tool to measure the effectiveness of their
solution, and make revisions to the original solution based on the information
collected.
COURSE CONTENT
Structure, Changes, and Interactions of
Matter (A-1,
A-2, A-8)
Subatomic Particles,
Atoms and Molecules
·
Explain
what a molecule is
·
Explain
how molecules move in each of the three states of matter
Chemical/Physical/Nuclear
Changes
·
Describe
a chemical change
·
Describe
some characteristics of compounds
·
Describe
a physical change
Chemical/Physical/Nuclear
Reactions
·
Explain
what a reaction is
·
Explain
the difference between solutions, solutes, and solvents
·
Explain
how chemical equations describe a chemical reaction
·
Balance
chemical equations
Laws of Conservation of
Mass and Conservation of Energy
·
Relate
energy to work
·
Explain
the difference between kinetic and potential energy
Physics
Component
Forces, Motion, and Relativity (A-5, A-6, A-16)
Forces
·
Explain
how balanced and unbalanced forces are related to motion
·
State
Newton’s first law of motion and define inertia
Gravity
·
Explain
what gravity is
·
State
the law of universal gravitation
·
Explain
how air resistance and gravity affect acceleration
·
Relate
the influence of the sun and the moon’s orbit to the gravitational effects
produced on Earth
Electromagnetic
Radiation
·
Identify
the three forms of heat transfer
·
Define
and calculate the specific heat of a substance
·
Describe
the movement of heat and how insulators and conductors affect heat transfer
Newton’s Law
of Motion
·
Apply
Newton’s Laws of Motion to the way the world works (e.g., inertia,
acceleration, gravitation, action/reaction, investigate electricity and
magnetism as universal forces, basic properties, and technological
applications)
Theory of Relativity
Earth Science
Component
Processes and Natural Events on Earth and
Universe (A-3,
A-4, A-7)
Models of our universe,
galaxy, and solar system
·
Determine
the factors involved in changing the Earth’s surface (e.g., gravity, heat
transfer, erosion, weathering, deposition)
·
Describe
and relate the formation of stars, galaxies, and clusters to the visible mass
in the universe
·
Compare
the contributions of space explorations to the understanding of the universe
Tides Seasons and
Motions of the Earth
·
Describe
the movement of Earth around the sun
·
Explain
how Earth’s revolution and the tilt of its axis causes seasons
Rocks and Minerals
·
Explain
what a mineral is
·
Name
some common minerals
·
Identify
four properties of minerals
·
Measure
specific gravity, hardness, streak, luster and cleavage of various minerals
·
Identify
dominant life-forms in Precambrian time and the Paleozoic Era
·
Use
physical properties and chemical composition to classify major types of rocks
and minerals
·
Categorize
samples of rocks (e.g., sedimentary, metamorphic, igneous)
·
Describe
the rock cycle
Plate Tectonics
·
Identify
the Earth’s layers
·
Explain
continental drift and plate tectonics
·
Explain
how plate tectonic influences changes in species
·
Explain
how changes caused by plate tectonics affected the evolution of life during the
Mesozoic Era
Earth
Quakes/Volcanoes/Glaciers
·
Explain
how volcanoes form
·
Describe
three types of volcanoes
·
Identify
types of movement along faults
·
Explain
what causes earthquakes
·
Describe
the motion of earthquake waves
·
Identify
what a seismograph does
Erosion and Deposition
·
Explain
how rivers erode the land
·
Describe
deposition by rivers
·
Explain
how waves change the shoreline
Weather
·
Know
weather (in the short term) and climate (in the long term) involve the transfer
of energy into and out of the atmosphere
·
Describe
weather and climate patterns on global levels
·
Describe
how temperature is measured
·
Define
air pressure and humidity
·
Describe
how and where air masses form
·
Tell
how wind speed, wind direction, and precipitation are measured
·
Compare
and contrast the three major climate zones
·
Investigate
the dynamic processes that influence global climate (e.g., cloud cover, Earth’s
rotation, features such as mountain ranges, and oceans)
·
Know
how Earth’s climate has changed over time, corresponding to changes in Earth’s
geography, atmospheric composition, and other factors, such as solar radiation
and plate movement
Oceanography
·
Identify
the physical properties and chemical composition of ocean water
·
Explain
the major patterns of oceanic circulation
·
Measure
tidal activity at a local beach
·
Determine
the rate of erosion at local beach or bluff
·
Relate
ocean up-welling to nutrients and growth of organisms
·
Create
a subsurface map of an ocean floor
·
Evaluate
man’s influence on the marine environment
·
Investigate
resources found in oceans (e.g., aquaculture, mineral deposits, food,
petroleum)
·
Investigate
Internet sites
World to Work
·
List
related careers
·
Research
education requirements of related careers
·
Discuss
required job skills
·
Interview
workers in related careers