
| CCAT
MIDDLE SCHOOL CURRICULUM |
CCAT
HIGH
SCHOOL CURRICULUM |
| Language Arts Mathematics Sciences Social Studies |
Advanced
Placement Joint Enrollment Language Arts Mathematics Sciences Social Studies |
| CCAT
CURRICULUM BY SUBJECT AREAS |
STANDARD 1:
Students
read a wide range of
print and non-print texts to build an understanding of texts, of
themselves
and of the cultures of the United States and the world; to acquire new
information; to respond to the needs and demands of society and the
workplace
and for personal fulfillment. Among
these texts are fiction and nonfiction, classic and contemporary works.
GEORGIA PERFORMANCE
STANDARDS
PERFORMANCE
BASED OBJECTIVES
STANDARD 2:
Students
read a wide range of
literature from many periods in many genres to build an understanding
of the
many dimensions (e.g., philosophical, ethical, aesthetic) of human
experience.
GEORGIA PERFORMANCE
STANDARDS
STANDARD 3:
GEORGIA
PERFORMANCE STANDARDS
PERFORMANCE BASED
OBJECTIVES:
STANDARD 4:
Students
adjust their use of
spoken, written, and visual language (e.g., conventions, style,
vocabulary) to
communicate effectively with a variety of audiences and for different
purposes.
STANDARD 5
GEORGIA PERFORMANCE
STANDARDS
PERFORMANCE
BASED OBJECTIVES
STANDARD 6:
GEORGIA PERFORMANCE
STANDARDS
PERFORMANCE BASED
OBJECTIVES
STANDARD 7:
Students
conduct research on
issues and interests by generating ideas and questions and by posing
problems. They gather, evaluate and
synthesize data
from a variety of sources (e.g., print and non-print texts, artifacts,
people)
to communicate their discoveries in ways that suit their purposes and
audiences.
GEORGIA PERFORMANCE
STANDARDS
PERFORMANCE BASED
OBJECTIVES
STANDARD 8:
Students
use a variety of
technological and informational resources (e.g., libraries, databases,
computer
networks, videos) to gather and synthesize information and to create
and
communicate knowledge.
PERFORMANCE BASED
OBJECTIVES
STANDARD 9:
Students develop an understanding of and respect for diversity in language use, patterns, and dialects across cultures, ethnic groups, geographic regions and social roles.
PERFORMANCE BASED
OBJECTIVES
STANDARD 10:
GEORGIA PERFORMANCE
STANDARDS
None
PERFORMANCE BASED
OBJECTIVES
STANDARD 11:
Students
participate as
knowledgeable, reflective, creative and critical members of a variety
of
literacy communities.
GEORGIA PERFORMANCE
STANDARDS
PERFORMANCE BASED
OBJECTIVES
STANDARD 12:
Students
use spoken, written,
and visual language to accomplish their own purposes (e.g., for
learning,
enjoyment, persuasion and the exchange of information).
GEORGIA PERFORMANCE
STANDARDS
PERFORMANCE BASED
OBJECTIVES
LANGUAGE ARTS
STANDARD 2:
STANDARD 3:
STANDARD 4:
STANDARD 5
STANDARD 6:
STANDARD 7:
Students
conduct research on
issues and interests by generating ideas and questions and by posing
problems. They gather, evaluate and
synthesize data
from a variety of sources (e.g., print and non-print texts, artifacts,
people)
to communicate their discoveries in ways that suit their purposes and
audiences.
STANDARD 8:
STANDARD 9:
Students
develop an
understanding of and respect for diversity in language use, patterns,
and
dialects across cultures, ethnic groups, geographic regions and social
roles.
STANDARD 10:
Students
participate as
knowledgeable, reflective, creative and critical members of a variety
of
literacy communities.
STANDARD 12:
GRADES NINE THROUGH
TWELVE
GRADES NINE THROUGH
TWELVE
STANDARD 1: Number and Operation Standard
M6N1: Students will understand the meaning of the four arithmetic operations as related to positive rational numbers and will use these concepts to solve problems.
a. Apply factors and multiples
b. Decompose numbers into their prime factorization (Fundamental Theorem of Arithmetic).
c. Determine the greatest common factor (GCF) and the least common multiple (LCM) for a set of numbers.
d. Add and subtract fractions and mixed numbers with unlike denominators.
e. Multiply and divide fractions and mixed numbers.
f. Use fractions, decimals, and percents interchangeably.
g. Solve problems involving fractions, decimals, and percents.
2. Students will further develop their understanding of the concept of rational numbers and apply them to real world situations
M7N1: Students will understand the meaning of positive and negative rational numbers and use them in computation.
PERFORMANCE BASED OBJECTIVES
Goals of the Unit:
*Understand relationships among factors, multiples, divisors, and products
* Recognize and use properties of prime and composite numbers, even and odd numbers, and square numbers
* Use rectangles to represent the factor pairs of numbers
* Develop strategies for finding factors, and multiples, least common multiples, and greatest common factors.
*Recognize and use the fact that every whole number can be written in exactly one way as a product of prime numbers
*Use factors and multiples to solve problems and to explain some numerical facts of everyday life
*Develop a variety of strategies for solving problems- building models, making lists and tables, drawing diagrams, and solving simple problems
The overall goal of Prime Time is to help students develop sound mathematical habits. Students learn important questions to ask themselves about any situation that can be represented and modeled mathematically, such as:
Will breaking a number into factors help me solve the problem?
What relationships are revealed by doing that?
What do the factors and multiples of the m=numbers tell me about the situation?
How can I find the factors of the numbers?
How can I find the multiples?
What common factors and common multiples do the numbers have?
Four “Investigations” (terminology used in Connected Math which is synonymous with “chapters”) are included in Prime Time. A brief summary of the investigations follow:
(1) Investigation 1: Factors and Products.
The Factor Game is used to engage students in a friendly contest in which winning strategies involve distinguishing between numbers with many factors and numbers with few factors. In the Product Game, students find products of factors. Students develop strategies to win the game by focusing on basic multiplication facts.
(2) Investigation 2: Whole-Number Patterns and Relationships
Students use graph paper and make rectangles to represent models. Students use factors and multiples with Venn diagrams to begin to notice important things about numbers and factors and multiples.
(3) Investigation 3: Common Multiples and Common Factors
Students use real-life situations to motivate and interest them in common factors and common multiples. The concepts of least common multiples and greatest common factors are introduced.
(4) Investigation 4: Factorizations: Searching for Factor Strings
Students discover the Fundamental Theorem of Arithmetic and learn to take a whole number and factor it into a product of prime numbers.
Goals of the Unit
* Build an understanding of fractions, decimals, and percents and the relationships between and among these concepts and their representations
* Develop ways to model situations involving fractions, decimals, and percents
* Understand and use equivalent fractions to reason about situations
* Move flexibly between fraction, decimal, and percent representation
* Use benchmarks such as 0, ½,1, and 1 ½ to help estimate the size of a number or sum
* Develop and use benchmarks that relate different forms of representations of rational numbers (for example, 50% is the same as 0.5 and ½)
* Use physical models and drawings to help reason about a situation
* Look for patterns and describe how to continue the pattern
* Use context to help reason about a situation
* Use estimation to understand a situation
The overall goal of Bits and Pieces is to help students make sense of fractions, decimals, and percents in contexts that stimulate different models and interpretations of fractions. To gain a mature knowledge of rational numbers, students must be able to handle these various interpretations of rational numbers. Students will develop productive ways of thinking about rational numbers. Students will work with linear models such as fraction strips, percent bars and number lines.
Four “Investigations” are used and a brief summary of the investigations follow:
(1) Investigation 1: Fundraising Fractions
Students explore three components of understanding fractions: the visual model (fraction strips), word names for fractions, and symbols for fractions. Students attend to patterns and relationships between fraction representations and quantities while they are folding fraction strips. Through the fraction strips, the part-whole interpretation of fractions is developed. The measuring of progress in a school fundraiser focuses students on interpreting fund-raising thermometers as a representation of a fraction amount of a whole and as a fraction part of a monetary goal.
(2) Investigation 2: Sharing and Comparing With Fractions
Students develop an understanding of equivalence, ordering and comparing fractions, and naming fractions greater than one. The focus is on the act of partitioning into equal-size pieces, and then repartitioning and renaming smaller and smaller parts. Candy licorice lace is used as a proxy for a number line. Four students going on a hike partially cut the licorice lace so it is easy to break, but have to re-mark the lace as more and more stuents join them for the hike. The new marks have to incorporate the old marks in order to name the fraction of the licorice lace each student will receive. By using equivalence, students develop strategies for finding a fraction between two given fractions.
(3) Investigation 3: Moving Between Fractions and Decimals
Students develop an understanding of decimal-fraction relationships for halves, thirds, fourths, fifths, sixths, eights, and tenths. Once these decimal-fraction relationships are established students are asked to use them to develop strategies for finding decimals for other fractions.
(4) Investigation 4: Working With Percents
Students use the percent bar model as a strategy for understanding what percent a fraction in a context represents. Students consider percents as a way of making comparisons among middle school basketball players’ free-throw shooting data. Students learn how to write a percent for situations that are not based on 100 and develop stregies for changing forms of representation among fractions, decimals, and percents.
Key Terms Introduced and Interpretations of Fractions
* Numerator and denominator
* Mixed number
* Improper fraction
* Fractions as parts of a whole
* Fractions as measures or quantities
* Fractions as indicated division
* Fractions as decimals
* Fractions as percents
Models of Fractions, Decimals and Percents
STANDARD 2: Algebra Standard
1. Students will investigate relationships between two quantities. They will write and solve proportions and simple one-step equations that result from problem situations.
M6A1: Students will understand the concept of ratio and use it to represent quantitative relationships.
M6A2: Students will consider relationships between varying quantities.
M6A3: Students will evaluate algebraic expressions, including those with exponents, and solve simple one-step equations using each of the four basic operations.
2, Students will demonstrate an understanding of linear relations and fundamental algebraic concepts.
M7A1: Students will represent and evaluate quantities using algebraic expressions.
M7A2: Students will understand and apply linear equations in one variable.
M7A3: Students will understand relationships between two variables.
PERFORMANCE BASED STANDARDS
1. Students will use the material in Connected Mathematics 2 in “unit” Variables and Patterns.
This unit is a function-oriented approach to Algebra. Students will work from numerical data, usually displayed in tabular form, studying quantitative relationships. Graphs, tables, verbal descriptions, and equations are used to support various forms of representations. The goal of this unit is for students to understand, think, and reason with all major useful forms of representation.
2. Students will study the “Pre-algebra” topics in the Learning Logic Math Lab.
STANDARD 3: Geometry Standard
1. Students will further develop their understanding of plane and solid geometric figures, incorporating the use of appropriate technology and using this knowledge to solve authentic problems.
M6G1: Students will further develop their understanding of plane figures.
M6G2: Students will further develop their understanding of solid figures.
M7G1: Students will construct plane figures that meet given conditions.
M7G2: Students will demonstrate understanding of transformations.
M7G3: Students will use the properties of similarity and apply these concepts to geometric figures.
M7G4: Students will further develop their understanding of three-dimensional figures.
PERFORMANCE BASED STANDARDS
Goals of the Unit
STANDARD 4: Measurement Standard
M6M1: Students will convert from one unit to another within one system of measurement (customary or metric) by using proportional relationships.
M6M2: Students will use appropriate units of measure for finding length, perimeter, area, and volume and will express each quantity using the appropriate unit.
M6M3: Students will determine the volume of fundamental solid figures (right rectangular, prisms, cylinders, pyramids, and cones).
M6M4: Students will determine the surface area of solid figures (right rectangular, prisms, and cylinders).
PERFORMANCE BASED STANDARDS
1. Students will use the material in Connected Mathematics 2 in “unit” Covering and Surrounding Two-Dimensional Measurement.
Goals of the Unit
The overall goal of Covering and Surrounding is to help students begin to understand what it means to measure. Students study two kinds of measurements: perimeter and area. The problems in this unit are structured so that students can build deep understanding of what it means to measure area and what it means to measure perimeter. In the process, they develop strategies for measuring perimeter and area of both rectangular and nonrectangular shapes.
Five “Investigations” are used for students in formulating rules for finding area and perimeter.
(1) Investigation 1: Designing Bumper Cars
This investigation introduces students to area and perimeter by asking them to create floor plans for bumper-car rides that are made from 1-meter-square floor tiles and 1-meter-long rail sections.
(2) Investigation 2: Changing Area, Changing Perimeter
In this investigation, students explore fixed area and fixed perimeter problems. These problems are sometimes referred to as maximum and minimum problems. Holding one variable constant to study how another variable changes is a powerful math tool used to analyze a wide variety of problems. It also helps strengthen students’ understanding of area and perimeter and how they are related.
(3) Investigation 3: Measuring Triangles
In this investigation, students deepen their understanding of area and perimeter by finding the areas and perimeters of triangles. Students also learn to identify the base and height on a triangle.
(4) Investigation 4: Measuring Parallelograms
In this investigation, students deepen their understanding of area and perimeter by finding the areas and perimeters of parallelograms.
(5) Investigation 5: Measuring Irregular Shapes and Circles
The counting techniques used to estimate areas and perimeters of non-regular shares are powerful yet concrete. They let students see the power of formulas to solve some cases and the need to understand the concepts underlying area and perimeter to solve others.
STANDARD 5: Data Analysis and Probability Standard
M6D1: Students will pose questions, collect data, represent and analyze the data and interpret results.
M6D2: Students will use experimental and simple theoretical probability and will understand the nature of sampling. They will also make predictions from investigations.
M7D1: Students will pose questions, collect data, represent and analyze the data, and interpret the results.
PERFORMANCE BASED STANDARDS
1. Students will use the material in Connected Mathematics 2 in “unit” Data About Us Statistics.
Goals of the Unit:
Goals of the Unit
Students explore statistics as a process of data investigation. This process often involves moving back and forth among the four interconnected components:
(1) Posing the question formulating the key question(s) to explore and deciding what data to collect to address the question(s)
(2) Colleting the data: deciding how to collect the data as well as actually collecting it
(3) Analyzing the data: organizing, representing, summarizing, and describing the data and looking for patterns in the data
(4) Interpreting the results: predicting, comparing, and identifying relationships and using the results from the analyses to make decisions about the original question(s)
Three “Investigations” are used in this unit:
(1) Investigation 1: Looking at Data
The first investigation develops some introductory statistical techniques that will be used throughout the unit. It focuses on describing, interpreting, and comparing distributions. Students are also introduced to types of data with a focus on categorical and numerical data. They consider two tables and graphs of data that relate to two questions, one that involves numerical data and one that involves categorical data. Finally, the students experiment with using and making horizontal and vertical graphs.
(2) Investigation 2: Using Graphs to Explore Data
This investigation first focuses on developing strategies for grouping and displaying data in intervals using stem-and-leaf plots. They use these plots to examine two given data sets. Students then use coordinate graphs to display pairs of data. They make a coordinate graph and sketch the y – x line so they can discuss people who are above, on, or below the line and what this means in terms of the relationship between arm span and height.
(3) Investigation 3: What Do We Mean by Mean?
This investigation focuses on developing the concept of mean. The “average” number of people in the families of students in a class provides the setting.
Note: the following “GPS” does not have a “national standard”.
M6P1: Students will solve problems (using appropriate technology).
a. Build new mathematical knowledge through problem solving.
b. Solve problems that arise in mathematics and in other contexts.
c. Apply and adapt a variety of appropriate strategies to solve problems.
d. Monitor and reflect on the process of mathematical problem solving.
M6P2: Students will reason and evaluate mathematical arguments.
a. Recognize reasoning and proof as fundamental aspects of mathematics.
b. Make and investigate mathematical conjectures.
c. Develop and evaluate mathematical arguments and proofs.
d. Select and use various types of reasoning and methods of proof.
M6P3: Students will communicate mathematically.
a. Organize and consolidate their mathematical thinking through communication.
b. Communicate their mathematical thinking coherently and clearly to peers, teachers, and others.
c. Analyze and evaluate the mathematical thinking and strategies of others.
d. Use the language of mathematics to express mathematical ideas precisely.
M6P4: Students will make connections among mathematical ideas and to other disciplines.
a. Recognize and use connections among mathematical ideas.
b. Understand how mathematical ideas interconnect and build on one another to produce a coherent whole.
c. Recognize and apply mathematics in contexts outside of mathematics.
M6P5: Students will represent mathematics in multiple ways.
a. Create and use representations to organize, record, and communicate mathematical ideas.
b. Select, apply, and translate among mathematical representations to solve problems.
c. Use representations to model and interpret physical, social, and mathematical phenomena.
M7P1: Students will solve problems (using appropriate technology).
a. Build new mathematical knowledge through problem solving.
b. Solve problems that arise in mathematics and other contexts.
c. Apply and adapt a variety of appropriate strategies to solve problems.
d. Monitor and reflect on the process of mathematical problem solving.
M7P2: Students will reason and evaluate mathematical arguments.
a. Recognize reasoning and proof as fundamental aspects of mathematics.
b. Make and investigate mathematical conjectures.
c. Develop and evaluate mathematical arguments and proofs.
d. Select and use various types of reasoning and methods of proof.
M7P3: Students will communicate mathematically.
a. Organize and consolidate their mathematical thinking through communication.
b. Communicate their mathematical thinking coherently and clearly to peers, teachers, and others.
c. Analyze and evaluate the mathematical thinking and strategies of others.
d. Use the language of mathematics to express mathematical ideas precisely.
M7P4: Students will make connections among mathematical ideas and to other disciplines.
a. Recognize and use connections among mathematical ideas.
b. Understand how mathematical ideas interconnect and build on one another to produce a coherent whole.
c. Recognize and apply mathematics in contexts outside of mathematics.
M7P5: Students will represent mathematics in multiple ways.
a. Create and use representations to organize, record, and communicate mathematical ideas.
b. Select, apply, and translate among mathematical representations to solve problems.
c. Use representations to model and interpret physical, social, and mathematical phenomena.`
PERFORMANCE BASED STANDARDS
1. CCAT students study Connected Mathematics – a curriculum built around math problems that help them develop understanding of important concepts and skills in numbers, geometry, measurement, algebra, probability, and statistics.
The Connected Mathematics Project (CMP) was funded by the National Science Foundation (NSF). Each unit helps students develop mathematical knowledge, understanding, and skill, as well as an awareness and appreciation of the rich connections among mathematical strands and between math and other disciplines.
Key features of Connected Math are:
2. CCAT students complete 9-week projects and incorporate their projects into their math portfolios at the end of each session.
Performance Based Objectives
Students will
represent and
analyze mathematical situations and structures using algebraic
symbols.
Performance Based Objectives
Standard 5:
Students will make mathematical conceptual
connections in cross-curricular and life situations.
GEORGIA
PEFORMANCE STANDARDS
PERFORMANCE BASED OBJECTIVES
PERFORMANCE
BASED OBJECTIVES
PERFORMANCE
BASED OBJECTIVES
GEORGIA PERFORMANCE
STANDARD
Performance Based Objectives
Performance Based Objective
Standard 5:
Students will make mathematical conceptual
connections in cross-curricular and life situations.
Standard 6:
Students will make mathematical conceptual connections in
cross-curricular and life situations.
Grades 6-8
STANDARD 1:
GEORGIA PERFORMANCE STANDARDS
S6CS1. Students will explore the
importance of curiosity,
honesty, openness, and skepticism in science and will exhibit these
traits in
their own efforts to understand how the world works.
a. Understand the importance of—and keep—honest,
clear, and accurate records in
science.
b. Understand that hypotheses are
valuable if they lead to
fruitful investigations, even if
the hypotheses turn out not to be
completely accurate
descriptions.
S6CS2.Students will use standard safety
practices for all
classroom laboratory and field
investigations.
a. Follow correct procedures for use of
scientific
apparatus.
b. Demonstrate appropriate techniques in
all laboratory
situations.
c. Follow correct protocol for
identifying and reporting
safety problems and violations.
S6CS3.Students will use computation and
estimation skills
necessary for analyzing data and following scientific explanations.
a. Analyze scientific data by using,
interpreting, and
comparing numbers in several
equivalent forms, such as integers and
decimals.
b. Use metric input units (such as
seconds, meters, or grams
per milliliter) of scientific
calculations to determine the proper unit
for expressing the
answer.
c. Address the relationship between
accuracy and precision
and the importance of each.
d. Draw conclusions based on analyzed
data.
S6CS4.Students will use tools and
instruments for observing,
measuring, and manipulating
equipment and materials in scientific
activities.
a. Use appropriate technology to store
and retrieve
scientific information in topical,
alphabetical, numerical, and keyword
files, and create
simple files.
b. Estimate the effect of making a change
in one part of a
system on the system as a
whole.
c. Read analog and digital meters on
instruments used to
make direct measurements of
length, volume, weight, elapsed time,
rates, and
temperature, and choose appropriate
units for reporting various quantities.
S6CS6.Students will communicate
scientific ideas and
activities clearly.
a. Write clear, step-by-step instructions
for conducting
scientific investigations, operating
a piece of equipment, or following a
procedure.
b. Understand and describe how writing
for scientific
purposes is different than writing
for literary purposes.
c. Organize scientific information using
appropriate tables,
charts, and graphs, and
identify relationships they reveal.
S6CS9.Students will investigate the
features of the process
of scientific inquiry.
Students will apply the following to
inquiry learning
practices:
a. Scientific investigations are
conducted for different
reasons. They usually involve
collecting evidence, reasoning, devising
hypotheses, and
formulating explanations.
b. Scientists often collaborate to design
research. To
prevent bias, scientists conduct
independent studies of the same
questions.
c. Accurate record keeping, data sharing,
and replication of
results are essential for
maintaining an investigator’s
credibility with other scientists and society.
d. Scientists use technology and
mathematics to enhance the
process of scientific inquiry.
e. The ethics of science require that
special care must be
taken and used for human
subjects and animals in scientific
research. Scientists must
adhere to the appropriate
rules and guidelines when conducting
research.
PERFORMANCE BASED OBJECTIVES
1.
The students will participate in a
scientific investigation that relates to the focus theme.
They will keep records, make inferences and
predictions and use this evidence to report their observations in
sketches,
diagrams, multi-media materials etc.
Students will learn appropriate ways to log experiments and
maintain
data.
2.
Students will design, implement and
report on a scientific experiment of their own choosing and will write clear descriptions of
their designs and
experiments, present their findings whenever possible in tables and
graphs, and
enter their data and results in a computer data base.
3.
Students
will be required to demonstrate safety procedures
by showing what they would do to prepare for lab work.
Students know and understand the
structure, processes, and
interactions of Earth's systems and the dynamics of the solar system
and the
universe.
GEORGIA PERFORMANCE STANDARD
evolved.
a. Relate the Nature of Science to the
progression of basic
historical scientific theories
(geocentric and heliocentric) as they
describe our solar
system and the Big Bang as it
describes the formation of the universe.
b. Describe the position of the solar
system in the Milky
Way galaxy and the universe.
c. Compare and contrast the planets in
terms of
• Size relative to the earth
• Surface and atmospheric features
• Relative distance from the sun
• Ability to support life
d. Explain the motion of objects in the
day/night sky in
terms of relative position.
e. Explain that gravity is the force that
governs the motion
in the solar system.
f. Describe the characteristics of
comets, asteroids, and
meteors.
S6E2. Students will understand the
effects of the relative
positions of the earth, moon and sun.
a. Demonstrate the phases of the moon by
showing the
alignment of the earth, moon, and
sun.
b. Explain the alignment of the earth,
moon, and sun during
solar and lunar eclipses.
c. Relate the tilt of the earth to the
distribution of
sunlight throughout the year and its
effect on climate.
S6E3. Students will recognize the
significant role of water
in earth processes.
a. Explain that a large portion of the
Earth’s
surface is water, consisting of oceans, rivers,
lakes, underground water, and ice.
b. Relate various atmospheric conditions
to stages of the
water cycle.
c. Describe the composition, location,
and subsurface
topography of the world’s oceans.
d. Explain the causes of waves, currents,
and tides.
S6E4. Students will understand how the
distribution of land
and oceans affects climate and
weather.
a. Demonstrate that land and water absorb
and lose heat at different
rates and explain the
resulting effects on weather patterns.
b. Relate unequal heating of land and
water surfaces to form
large global wind systems
and weather events such as tornados and
thunderstorms.
c. Relate how moisture evaporating from
the oceans affects
the weather patterns and
weather events such as hurricanes.
S6E5. Students will investigate the
scientific view of how
the earth’s surface is formed.
a. Compare and contrast the Earth’s crust, mantle,
and core including temperature,
density, and composition.
b. Classify rocks by their process of
formation.
c. Describe processes that change rocks
and the surface of
the earth.
d. Recognize that lithospheric plates
constantly move and
cause major geological events
on the earth’s surface.
e. Explain the effects of physical
processes (plate
tectonics, erosion, deposition, volcanic
eruption, gravity) on geological features
including oceans
(composition, currents, and
tides).
f. Describe how fossils show evidence of
the changing surface
and climate of the Earth.
g. Describe soil as consisting of
weathered rocks and
decomposed organic material.
h. Explain the effects of human activity
on the erosion of
the earth’s surface.
i. Describe methods for conserving
natural resources such as
water, soil, and air.
S6E6. Students will describe various
sources of energy and
with their uses and conservation.
a. Explain the role of the sun as the
major source of energy
and its relationship to wind
and water energy.
b. Identify renewable and nonrenewable
resources.
PERFORMANCE BASED OBJECTIVES
1.
A geologist will be invited to come and
discuss and show the characteristics of different rocks and minerals. After viewing examples of different types of
rocks, students will develop a classification system by physical
properties
along with the geologist. (This should
include basic rock origins such as igneous, metamorphic and sedimentary
as well
as physical properties such as hardness, shape etc.).
They will then bring in rocks of their own to
classify and make a display for the other students to view. Students who would like further
investigation, can research what types of rock are native to our
Georgia
environment.
2.
Students will find models of the
Earth's composition in various sources and compare the information they
find.
3.
Students will study how the water cycle
works in general and in Southeast Georgia, in particular.
What's the average rainfall? How is
water stored naturally and
artificially in our area? Where does any
excess or waste water flow? Where does
the water that evaporates come down as precipitation?
6.
The local weatherman will be invited to
come and speak to the students about weather.
He will show them weather maps and charts and discuss how he
makes
forecasts. He will also discuss the
effects humans have had on weather and climate.
He will also answer student questions about the relationship of
weather
to the atmosphere. Students will write a response to this discussion in
their
science log.
7.
Students will add more detail to their
picture of the universe by paying increasing attention to matters of
scale. They will back up their
understanding with activities using astronomical tools such as star
finders,
telescopes, computer simulations of planetary orbits or a planetarium. After making extensive observations, each
student will figure out and construct three- dimensional models of size
and
distance expressed in light years. (Example: Planets within the solar
system).
8.
After
several evenings of star gazing, students will visit the planetarium on
the
Georgia Southern University campus. They
will learn that the pattern in the skies stays the same although they
appear to
move across the sky. They will also
learn that different stars can be seen in different seasons and the
reason for
this. They will write their observations
in their science log.
9.
Students
will participate in the Jason Project activities relating to Earth
Science.
10.
Students will compare
artists’ and scientists’ representations of
the night
sky.
11.
Students will research
Geocentric,
Heliocentric, and Big Bang Theories and prepare a chart to compare them.
12.
Students will
participate in Morrow
and Zawaski’s
Kinesthetic Astronomy lessons to reinforce the tilt of the Earth and
the seasons.
13.
Students will learn
cloud types and
their meanings related to forecasting weather.
STANDARD 5:
achieved. Students will apply the
following to scientific
concepts:
a. When similar investigations give
different results, the
scientific challenge is to judge
whether the differences are trivial or
significant, which
often requires further study.
Even with similar results, scientists may
wait until an
investigation has been repeated
many times before accepting the results
as meaningful.
b. When new experimental results are
inconsistent with an
existing, well-established
theory, scientists may require further
experimentation to
decide whether the results are
flawed or the theory requires
modification.
c. As prevailing theories are challenged
by new information,
scientific knowledge may
change and grow.
S6CS10. Students will enhance reading in
all curriculum
areas by:
a. Reading in All Curriculum Areas
• Read a minimum of 25 grade-level
appropriate books per year
from a variety of
subject disciplines and participate in
discussions related
to curricular learning in
all areas
• Read both informational and fictional
texts in a variety of
genres and modes of
discourse
• Read technical texts related to various
subject areas
b. Discussing books
• Discuss messages and themes from books
in all subject
areas.
• Respond to a variety of texts in
multiple modes of
discourse.
• Relate messages and themes from one
subject area to
messages and themes in
another area.
• Evaluate the merit of texts in every
subject discipline.
• Examine author’s purpose
in writing.
• Recognize the features of disciplinary
texts.
c. Building vocabulary knowledge
• Demonstrate an understanding of
contextual vocabulary in
various subjects.
• Use content vocabulary in writing and
speaking.
• Explore understanding of new words found
in subject area
texts.
d. Establishing context
• Explore life experiences related to
subject area content.
• Discuss in both writing and speaking how
certain words are
subject area related.
• Determine strategies for finding content
and contextual
meaning for unknown
words.
PERFORMANCE BASED OBJECTIVES
1.
This technology is an integral part of
the rest of the science curriculum and is contained in specific subject
areas. Students will be introduced to
the range of careers that involve technology and science, including
engineering, architecture, industrial design and health care. Through projects readings, field trips, and
interviews, students can begin to develop a sense of the great variety
of
occupations related to technology and to science and what preparation
they
require.
2.
Several field trips to see technology
and science at work will be undertaken (For example, the space camp in
Alabama
or Cape Kennedy in Florida)
Students understand that science is a
search for patterns in
nature and that these patterns suggest broad concepts that link the
scientific
disciplines.
GEORGIA PERFORMANCE STANDARDS
S6CS5.Students will use the ideas of
system, model, change,
and scale in exploring scientific and technological matters.
a. Observe and explain how parts are
related to other parts
in systems such as weather
systems, solar systems, and ocean systems
including how the
output from one part of a
system (in the form of material, energy,
or information) can
become the input to other
parts. (For example: El Nino’s effect
on weather)
b. Identify several different models
(such as physical
replicas, pictures, and analogies)
that could be used to represent the same
thing, and evaluate
their usefulness, taking
into account such things as the model’s purpose and
complexity.
PERFORMANCE BASED OBJECTIVES
Students know that science is a framework
for understanding
the natural world based on experimentation and logical analysis
GEORGIA PERFORMANCE STANDARDS
a. Question claims based on vague
attributions (such as “Leading doctors say...”) or on
statements made by people outside the
area of their
particular expertise.
b. Recognize that there may be more than
one way to
interpret a given set of findings.
CCAT PERFORMANCE BASED OBJECTIVES
STANDARD 1:
Students understand the processes of
scientific
investigation and are able to design, conduct, communicate, and
evaluate such
investigations. Students use their
understanding of science in a decision-making process.
GEORGIA
PERFORMANCE STANDARDS
S7CS1.Students will explore of the
importance of curiosity,
honesty, openness, and skepticism in science and will exhibit these
traits in
their own efforts to understand how the world works.
a. Understand the importance of—and keep—honest,
clear, and accurate records in
science.
b. Understand that hypotheses can be
valuable, even if they
turn out not to be completely
accurate.
S7CS2.Students will use standard safety
practices for all
classroom laboratory and field
investigations.
a. Follow correct procedures for use of
scientific
apparatus.
b. Demonstrate appropriate techniques in
all laboratory
situations.
c. Follow correct protocol for
identifying and reporting
safety problems and violations.
S7CS3.Students will have the computation
and estimation
skills necessary for analyzing data and following scientific
explanations.
a. Analyze scientific data by using,
interpreting, and
comparing numbers in several
equivalent forms, such as integers,
fractions, decimals, and
percents.
b. Use the mean, median, and mode to
analyze a set of
scientific data.
c. Apply the metric system to a
scientific investigation
that includes metric to metric
conversion. (i.e. centimeters to meters)
d. Draw conclusions based on analyzed
data.
e. Decide what degree of precision is
adequate, and round
off appropriately.
f. Address the relationship between
accuracy and precision
and the importance of each.
S7CS4.Students will use tools and
instruments for observing,
measuring, and manipulating
equipment and materials in scientific
activities.
a. Use appropriate technology to store
and retrieve
scientific information in topical,
alphabetical, numerical, and keyword
files, and create
simple files.
b. Use appropriate tools for measuring
objects and/or
substances.
c. Learn and use on a regular basis
standard safety
practices for scientific investigations.
S7CS6.Students will communicate
scientific ideas and
activities clearly.
a. Write clear, step-by-step instructions
for conducting
particular scientific investigations,
operating a piece of equipment, or
following a procedure.
b. Write for scientific purposes
incorporating data from
circle, bar and line graphs, twoway
data tables, diagrams, and symbols.
c. Organize scientific information using
appropriate simple
tables, charts, and graphs, and
identify relationships they reveal.
S7CS9.Students will investigate the
features of the process
of scientific inquiry.
Students will apply the following to
inquiry learning
practices:
a. Investigations are conducted for
different reasons, which
include exploring new
phenomena, confirming previous results,
testing how well a
theory predicts, and
comparing competing theories.
b. Scientific investigations usually
involve collecting evidence,
reasoning, devising
hypotheses, and formulating explanations
to make sense of
collected evidence.
c. Scientific experiments investigate the
effect of one
variable on another. All other
variables are kept constant.
d. Scientists often collaborate to design
research. To
prevent this bias, scientists conduct
independent studies of the same
questions.
e. Accurate record keeping, data sharing,
and replication of
results are essential for
maintaining an investigator’s
credibility with other scientists and society.
f. Scientists use technology and
mathematics to enhance the
process of scientific inquiry.
g. The ethics of science require that
special care must be
taken and used for human
subjects and animals in scientific
research. Scientists must
adhere to the appropriate
rules and guidelines when conducting
research.
1.
The students will participate in a
scientific investigation that relates to the focus theme.
They will keep records, make inferences and predictions
and use this evidence to report their observations in sketches,
diagrams,
multi-media materials etc. Students will
learn appropriate ways to log experiments and maintain data.
2.
Students will design, implement and
report on a scientific experiment of their own choosing and will write clear descriptions of
their designs and
experiments, present their findings whenever possible in tables and
graphs, and
enter their data and results in a computer data base.
3.
Students will be required to demonstrate
safety procedures by showing what they would do to prepare for lab work.
Students know and understand the
characteristics and
structure of living things, the processes of life, and how living
things
interact with each other and their environment.
compared scientifically.
a. Demonstrate the process for the
development of a
dichotomous key.
b. Classify organisms based on a
six-kingdom system and a
dichotomous key.
S7L2. Students will describe the
structure and function of
cells, tissues, organs, and organ
systems.
a. Explain that cells take in nutrients
in order to grow and
divide and to make needed
materials.
b. Relate cell structures (cell membrane,
nucleus,
cytoplasm, chloroplasts, mitochondria)
to basic cell functions.
c. Explain that cells are organized into
tissues, tissues
into organs, organs into systems,
and systems into organisms.
d. Explain that tissues, organs, and
organ systems serve the
needs cells have for oxygen,
food, and waste removal.
e. Explain the role of the major organ
systems in the human
body.
S7L3. Students will recognize how
biological traits are
passed on to successive generations.
a. Explain the role of genes and
chromosomes in the process
of inheriting a specific trait.
b. Compare and contrast sexual and
asexual reproduction in
organisms (bacteria, protists,
fungi, plants & animals).
c. Recognize that selective breeding can
produce plants or
animals with desired traits.
S7L4. Students will examine the
dependence of organisms on
one another and their
environments.
a. Demonstrate in a food web that matter
is transferred from
one organism to another and
can recycle between organisms and their
environments.
b. Explain in a food web that sunlight is
the source of
energy and that this energy moves
from organism to organism.
c. Recognize that changes in
environmental conditions can
affect the survival of both
individuals and entire species.
d. Categorize relationships between
organisms that are
competitive or mutually
beneficial.
e. Describe the characteristics of Earth’s major
terrestrial biomes (i.e. tropical rain forest,
savannah, temperate, desert, taiga,
tundra, and mountain)
and aquatic communities (i.e.
freshwater, estuaries, and marine).
S7L5. Students will examine the evolution
of living
organisms through inherited
characteristics that promote survival of
organisms and the
survival of successive
generations of their offspring.
a. Explain how physical characteristics
of organisms have
changed over successive
generations (e.g. Darwin’s finches
and peppered moths of Manchester).
b. Describe ways in which species on
earth have evolved due
to natural selection.
c. Explain how the fossil record found in
sedimentary rock
provides evidence for the long
history of changing life forms.
PERFORMANCE BASED OBJECTIVES
1.
Students will use microscopes, models,
charts (from both print and multi-media sources) to observe cells. They can observe films of living cells
growing, dividing, and responding to their environment.
They will in an oral report with graphic
representation hypothesize how single cell organisms satisfy their
needs for
food, water, air, a way to dispose their wastes and an environment
where they
can live.
2.
Students will use photomicrographs to
extend their observation of cells concentrating on cells that make up
internal
body structures. (nerve, bone, muscle, skin) Students
should learn that cells are the
fundamental building blocks of their own bodies and other living things.
3.
Students will examine the different
organs and their functions in Grolier Interactive Encylopedia. After examining all systems, they will
pick one system (alone or in a group) to study in detail and prepare a
presentation for Group Seminar.
4.
Student groups will construct “Trash Anatomy” models,
using recycled items, to demonstrate knowledge of organ systems.
5.
Students will participate in a computer
program which explains the five kingdoms, their characteristics and
structures. They will demonstrate their
knowledge by passing an examination on these five kingdoms.
6.
Students will dissect plants (either
literally or virtually) to compare and contrast the structure and
characteristics of various plants. They will illustrate their findings
in their
science logs.
7.
Students will dissect fetal pigs to
compare and contrast the structure and characteristics of vertebrate
animals
and humans. They will illustrate
their
findings in their science logs.
8.
Students will study the biomes (the
largest recognizable terrestrial components or units) of the biosphere
(the
entire surface of the Earth that is occupied by life).
They are most often distinguished from each
other by vegetation and climate. Using
Grolier Interactive Encyclopedia
they will answer the question, What are
some of the world’s terrestrial habitats? Antarctic,
Arctic, Desert, Forest,
Grassland, Intertidal, Jungle, Mountain, Savanna, Steppe, Swamp, Tundra. Working in small groups students will choose
one of the above habitats and build a display based on their research
in the
Encyclopedia and other sources
10. Students
will
use dichotomous keys to classify organisms.
Students know and understand
interrelationships among
science, technology, and human activity and how these affect the world.
GEORGIA
PERFORMANCE STANDARDS
knowledge is achieved. Students will
apply the following to
scientific concepts:
a. When similar investigations give
different results, the
scientific challenge is to judge
whether the differences are trivial or
significant, which
often requires further study.
Even with similar results, scientists may
wait until an
investigation has been repeated
many times before accepting the results
as meaningful.
b. When new experimental results are
inconsistent with an
existing, well-established
theory, scientists may pursue further
experimentation to
determine whether the results
are flawed or the theory requires
modification.
c. As prevailing theories are challenged
by new information,
scientific knowledge may
change.
S7CS10. Students will enhance reading in
all curriculum
areas by:
a. Reading in All Curriculum Areas
• Read a minimum of 25 grade-level
appropriate books per year
from a variety of
subject disciplines and participate in
discussions related
to curricular learning in
all areas
• Read both informational and fictional
texts in a variety of
genres and modes of
discourse
• Read technical texts related to various
subject areas
b. Discussing books
• Discuss messages and themes from books
in all subject
areas.
• Respond to a variety of texts in
multiple modes of
discourse.
• Relate messages and themes from one
subject area to
messages and themes in
another area.
• Evaluate the merit of texts in every
subject discipline.
• Examine author’s purpose
in writing.
• Recognize the features of disciplinary
texts.
c. Building vocabulary knowledge
• Demonstrate an understanding of
contextual vocabulary in
various subjects.
• Use content vocabulary in writing and
speaking.
• Explore understanding of new words found
in subject area
texts.
d. Establishing context
• Explore life experiences related to
subject area content.
• Discuss in both writing and speaking how
certain words are
subject area related.
• Determine strategies for finding content
and contextual
meaning for unknown
words.
PERFORMANCE BASED OBJECTIVES
2.
Several field trips to see technology
and science at work will be undertaken (For example, the space camp in
Alabama
or Cape Kennedy in Florida)
Students understand that science is a
search for patterns in
nature and that these patterns suggest broad concepts that link the
scientific
disciplines.
GEORGIA PERFORMACE STANDARDS
a. Observe and explain how parts can be
related to other
parts in a system such as
predator/prey relationships in a
community/ecosystem.
b. Understand that different models (such
as physical
replicas, pictures, and analogies)
can be used to represent the same thing.
PERFORMANCE BASED OBJECTIVES
1.
These patterns are an integral part of
the science curriculum and are contained in each specific subject area.
GEORGIA PERFORMANCE STANDARDS
a. Question claims based on vague
attributions (such as “Leading doctors say...”) or on
statements made by people outside the
area of their
particular expertise.
b. Identify the flaws of reasoning that
are based on poorly
designed research (i.e., facts
intermingled with opinion, conclusions
based on insufficient
evidence).
c. Question the value of arguments based
on small samples of
data, biased samples, or
samples for which there was no control.
d. Recognize that there may be more than
one way to
interpret a given set of findings.
PERFORMANCE BASED OBJECTIVES
1.
These science frameworks are an
integral part of the science curriculum and are contained in each
specific
subject area.
Students understand the processes of
scientific
investigation and are able to design, conduct, communicate, and
evaluate such
investigations. Students use their
understanding of science in a decision-making process.
GEORGIA
PERFORMANCE STANDARDS
S8CS1. Students will explore the
importance of curiosity,
honesty, openness, and skepticism in science and will exhibit these
traits in
their own efforts to understand how the
world works.
a. Understand the importance of—and keep—honest,
clear, and accurate records in
science.
b. Understand that hypotheses can be
valuable even if they
turn out not to be completely
accurate.
S8CS2. Students will use standard safety
practices for all
classroom laboratory and field
investigations.
a. Follow correct procedures for use of
scientific
apparatus.
b. Demonstrate appropriate techniques in
all laboratory
situations.
c. Follow correct protocol for
identifying and reporting
safety problems and violations.
S8CS3. Students will have the computation
and estimation
skills necessary for analyzing data and following scientific
explanations.
a. Analyze scientific data by using,
interpreting, and
comparing numbers in several
equivalent forms, such as integers,
fractions, decimals, and
percents.
b. Find the mean, median, and mode and
use them to analyze a
set of scientific data.
c. Apply the metric system to scientific
investigations that
include metric to metric
conversions (i.e., centimeters to
meters).
d. Decide what degree of precision is
adequate, and round
off appropriately.
e. Address the relationship between
accuracy and precision.
f. Use ratios and proportions, including
constant rates, in
appropriate problems.
S8CS4. Students will use tools and
instruments for observing,
measuring, and manipulating equipment and materials in scientific
activities
utilizing safe laboratory procedures.
a. Use appropriate technology to store
and retrieve
scientific information in topical,
alphabetical, numerical, and keyword
files, and create
simple files.
b. Use appropriate tools and units for
measuring objects
and/or substances.
c. Learn and use standard safety
practices when conducting
scientific investigations.
S8CS6. Students will communicate
scientific ideas and
activities clearly.
a. Write clear, step-by-step instructions
for conducting
scientific investigations, operating
a piece of equipment, or following a
procedure.
b. Write for scientific purposes
incorporating information
from a circle, bar, or line graph,
data tables, diagrams, and symbols.
c. Organize scientific information in
appropriate tables,
charts, and graphs, and identify
relationships they reveal.
S8CS9. Students will understand the
features of the process
of scientific inquiry.
Students will apply the following to
inquiry learning
practices:
a. Investigations are conducted for
different reasons, which
include exploring new
phenomena, confirming previous results,
testing how well a
theory predicts, and
comparing different theories. Scientific
investigations
usually involve collecting
evidence, reasoning, devising hypotheses,
and formulating
explanations to make sense of
collected evidence.
b. Scientific investigations usually
involve collecting
evidence, reasoning, devising
hypotheses, and formulating explanations
to make sense of
collected evidence.
c. Scientific experiments investigate the
effect of one
variable on another. All other
variables are kept constant.
d. Scientists often collaborate to design
research. To
prevent this bias, scientists conduct
independent studies of the same
questions.
e. Accurate record keeping, data sharing,
and replication of
results are essential for
maintaining an investigator’s
credibility with other scientists and society.
f. Scientists use technology and
mathematics to enhance the
process of scientific inquiry.
g. The ethics of science require that
special care must be
taken and used for human subjects and animals in scientific research.
Scientists must adhere to the appropriate rules and guidelines when
conducting
research.
PERFORMANCE BASED OBJECTIVES
1.
The students will participate in a
scientific investigation that relates to the focus theme.
They will keep records, make inferences and
predictions and use this evidence to report their observations in
sketches,
diagrams, multi-media materials etc.
Students will learn appropriate ways to log experiments and
maintain
data.
2.
Students will design, implement and
report on a scientific experiment of their own choosing and will write clear descriptions of
their designs and
experiments, present their findings whenever possible in tables and
graphs, and
enter their data and results in a computer data base.
3.
Students will be required to
demonstrate safety procedures by showing what they would do to prepare
for lab
work.
Students know and understand common
properties, forms,
interactions, and transformations of matter and energy.
GEORGIA
PERFORMANCE STANDARDS
S8P1. Students will examine the
scientific view of the
nature of matter.
a. Distinguish between atoms and
molecules.
b. Describe the difference between pure
substances (elements
and compounds) and
mixtures.
c. Describe the movement of particles in
solids, liquids,
gases, and plasmas states.
d. Distinguish between physical and
chemical properties of
matter as physical (i.e., density, melting point, boiling point) or
chemical
(i.e., reactivity, combustibility).
e. Distinguish between changes in matter
as physical (i.e.,
physical change) or chemical
(development of a gas, formation of
precipitate, and change
in color).
f. Recognize that there are more than 100
elements and some
have similar properties as
shown on the Periodic Table of Elements.
g. Identify and demonstrate the Law of
Conservation of
Matter.
S8P2. Students will be familiar with the
forms and
transformations of energy.
a. Explain energy transformation in terms
of the Law of
Conservation of Energy.
b. Explain the relationship between
potential and kinetic
energy.
c. Compare and contrast the different
forms of energy (heat,
light, electricity, mechanical
motion, sound) and their characteristics.
d. Describe how heat can be transferred
through matter by
the collisions of atoms
(conduction) or through space
(radiation). In a liquid or
gas, currents will facilitate the
transfer of heat (convection).
S8P3. Students will investigate
relationship between force,
mass, and the motion of objects.
a. Determine the relationship between
velocity and
acceleration.
b. Demonstrate the effect of balanced and
unbalanced forces
on an object in terms of
gravity, inertia, and friction.
c. Demonstrate the effect of simple
machines (lever,
inclined plane, pulley, wedge, screw,
and wheel and axle) on work.
S8P4. Students will explore the wave
nature of sound and
electromagnetic radiation.
a. Identify the characteristics of
electromagnetic and
mechanical waves.
b. Describe how the behavior of light
waves is manipulated
causing reflection, refraction
diffraction, and absorption.
c. Explain how the human eye sees objects
and colors in
terms of wavelengths.
d. Describe how the behavior of waves is
affected by medium
(such as air, water, solids).
e. Relate the properties of sound to
everyday experiences.
f. Diagram the parts of the wave and
explain how the parts
are affected by changes in
amplitude and pitch.
S8P5. Students will recognize
characteristics of gravity,
electricity, and magnetism as major kinds of forces acting in nature.
a. Recognize that every object exerts
gravitational force on
every other object and that the
force exerted depends on how much mass
the objects have and
how far apart they are.
b. Demonstrate the advantages and
disadvantages of series
and parallel circuits and how
they transfer energy.
c. Investigate and explain that electric
currents and
magnets can exert force on each other.
PERFORMANCE
BASED OBJECTIVES
2.
Students
will experiment with the properties and phases of
matter using water as an example.
3.
They will develop models of atoms, molecules and compounds and conduct
experiments that
differentiate between elements, compounds and mixtures.
4. Students will conduct experiments with
a several examples of reactions between substances that produce new
substances
very different from the reactants. They
will log their observations in relationship to volume, weight and
temperature.
5. Students will experiment with the
properties of an acid and base. They
will conduct several experiments combining and acid and a base and will
diagram
the chemical reaction.
6. Students
will in a group seminar discuss the difference between energy and work,
i.e.
that energy is work when it is kinetic energy and is work waiting to be
done
when it is potential energy. They will
write their observations of examples of kinetic and potential energy in
their
environment in their science log.
7. Students
will examine the force, motion, acceleration and rate of speed using K’Nex
Building Sets. They can measure the rate
of speed (speed = distance over time), examine the role of rubber band
energy, determine
how friction effects the acceleration rate.
8. Students
will make a dam of various materials and run water against at different
pressures and rates of speed to determine the effect of fluid pressure. They will organize their observations into a
chart to share with others.
9. Students
will make a list of all the machines that they use to make their work
easier. They will compare these lists
and demonstrate their favorite machine in group seminar.
11. Students
will perform experiments to see how heat affects the phases or states
of matter
(Example: ice changing from liquid to steam), and how heat is
transferred from
one source to another (Example: Heating water on a stove).
13. Students
will study in group seminar sound vibrations and then will experiment
with
various percussion instruments and other sound vibrations.
They will record their observations in their
science log and draw conclusions about what they find.
14. Students
will examine manually, try to produce sound and listen to a musician
producing
sound on a variety of musical instruments to determine why vibrations
form
sound.
17. An
electrician will be invited to come and discuss various characteristics
of
electricity and demonstrate various ways to use and describe
electricity.
18. Each
student will build their own simple circuit model with the following
four
parts: 1) a battery, 2) a wire, 3) a light bulb, and 4) a switch. As they work with their circuit they will be
about to explain the flow of electrons through the wire.
STANDARD 5:
GEORGIA
PERFORMANCE STANDARDS
S8CS8. Students will be familiar with the
characteristics of
scientific knowledge and how it is achieved. Students will apply the
following
to scientific concepts:
a. When similar investigations give
different results, the
scientific challenge is to judge
whether the differences are trivial or
significant, which
often requires further study. Even
with similar results, scientists may wait
until an
investigation has been repeated many
times before accepting the results as
meaningful.
b. When new experimental results are
inconsistent with an
existing, well-established theory, scientists may pursue further
experimentation to determine whether the results are flawed or the
theory
requires modification.
c. As prevailing theories are challenged
by new information,
scientific knowledge may
change.
S8CS10. Students will enhance reading in
all curriculum
areas by:
a. Reading in All Curriculum Areas
• Read a minimum of 25 grade-level
appropriate books per year
from a variety of
subject disciplines and participate in
discussions related
to curricular learning in
all areas
• Read both informational and fictional
texts in a variety of
genres and modes of
discourse
• Read technical texts related to various
subject areas
b. Discussing books
• Discuss messages and themes from books
in all subject
areas.
• Respond to a variety of texts in
multiple modes of
discourse.
• Relate messages and themes from one
subject area to
messages and themes in
another area.
• Evaluate the merit of texts in every
subject discipline.
• Examine author’s purpose
in writing.
• Recognize the features of disciplinary
texts.
c. Building vocabulary knowledge
• Demonstrate an understanding of
contextual vocabulary in
various subjects.
• Use content vocabulary in writing and
speaking.
• Explore understanding of new words found
in subject area
texts.
d. Establishing context
• Explore life experiences related to
subject area content.
• Discuss in both writing and speaking how
certain words are
subject area related.
• Determine strategies for finding content
and contextual
meaning for unknown
words.
PERFORMANCE
BASED OBJECTIVES
1.
These patterns are an integral part of
the science curriculum and are contained in each specific subject area.
STANDARD 6:
Students understand that science is a search for patterns in nature and that these patterns suggest broad concepts that link the scientific disciplines.GEORGIA
PERFORMANCE STANDARDS
S8CS5. Students will use the ideas of
system, model, change,
and scale in exploring scientific and technological matters.
a. Observe and explain how parts can be
related to other
parts in a system such as the role of simple machines in complex
machines.
b. Understand that different models (such
as physical
replicas, pictures, and analogies)
can be used to represent the same thing.
CCAT
PERFORMANCE BASED OBJECTIVES
1.
These patterns are an integral part of
the science curriculum and are contained in each specific subject area.
STANDARD 7:
GEORGIA
PERFORMANCE STANDARDS
CS8CS7. Students will question scientific
claims and
arguments effectively.
a. Question claims based on vague
attributions (such as “Leading doctors say...”) or on
statements made by people outside the
area of their
particular expertise.
b. Identify the flaws of reasoning in
arguments that are
based on poorly designed research
(e.g., facts intermingled with opinion,
conclusions based on
insufficient evidence).
c. Question the value of arguments based
on small samples of
data, biased samples, or
samples for which there was no control.
d. Recognize that there may be more than
one way to
interpret a given set of findings.
PERFORMANCE
BASED OBJECTIVES
1.
These science frameworks are an
integral part of the science curriculum and are contained in each
specific subject
area.
I.
Scientific Investigation
A.
NATIONAL SCIENCE EDUCATION CONTENT STANDARDS
Science
as Inquiry
NSES
CONTENT STANDARD A: As a result of activities in grades
9-12, all students should develop
an understanding of
·
Abilities
necessary to do scientific inquiry
·
Understandings
about scientific inquiry
Science
and Technology
NSES
CONTENT STANDARD E: As a
result of activities in grades 9-12, all students should develop
an understanding of
·
Abilities
of technological design
·
Understandings
about science and technology
History
and Nature of Science
NSES
CONTENT STANDARD G: As a result of activities in grades
9-12, all students should develop an understanding of
·
Science
as a human endeavor
·
Nature
of scientific knowledge
·
Historical
perspectives
B.
SCSh1.
Students will evaluate the importance of curiosity, honesty, openness,
and
skepticism in science.
SCSh2.
Students will use and understand safety practices for all classroom
laboratory
and field investigations.
SCSh3.
Students will identify and investigate problems scientifically.
SCSh4.
Students will use tools and instruments for observing, measuring, and
manipulating scientific equipment and materials.
SCSh5.
Students will demonstrate the computation and estimation skills
necessary for
analyzing data and developing reasonable scientific explanations.
SCSh6.
Students will communicate scientific investigations and information
clearly.
SCSh7.
Students will analyze how scientific knowledge is developed.
SCSh8.
Students will understand important features of the process of
scientific
inquiry.
C.
ORIGINAL STANDARDS 2000
STANDARD
1
Students
understand the processes of scientific
investigation and are able to design, conduct, communicate, and
evaluate such
investigations. Students use their understanding of science in a
decision-making process.
STANDARD
7
Students
know
that science is a framework for understanding the natural world based
on
experimentation and logical analysis.
D.
PERFORMANCE
BASED OBJECTIVES
A.
NATIONAL SCIENCE EDUCATION CONTENT STANDARDS
Physical
Science
NSES
CONTENT STANDARD B: As a result
of their activities in grades 9-12, all students should develop an
understanding of
·
Structure
of atoms
·
Structure
and properties of matter
·
Chemical
reactions
·
Motions
and forces
·
Conservation
of energy and increase in disorder
·
Interactions
of energy and matter
Science
and Technology
NSES
CONTENT STANDARD E: As a result of activities in grades
9-12, all students should develop an understanding of
·
Abilities
of technological design
·
Understandings
about science and technology
History
and Nature of Science
NSES
CONTENT STANDARD G: As a result of activities in grades
9-12, all students should develop an understanding of
·
Science
as a human endeavor
·
Nature
of scientific knowledge
B.
SCSh1.
Students will evaluate the importance of curiosity,
honesty, openness, and skepticism in science.
SCSh2.
Students will use and understand safety practices for all
classroom laboratory and field investigations.
SCSh3.
Students will identify and investigate problems
scientifically.
SCSh4.
Students will use tools and instruments for observing,
measuring, and manipulating scientific equipment and materials.
SCSh5.
Students will demonstrate the computation and estimation
skills necessary for analyzing data and developing reasonable
scientific
explanations.
SCSh6.
Students will communicate scientific investigations and
information clearly.
SCSh7.
Students will analyze how scientific knowledge is
developed.
SCSh8.
Students will understand important features of the process
of scientific inquiry.
C.
ORIGINAL
STANDARDS 2000
STANDARD
2
Students
know and understand
common properties, forms, interactions and transformations of matter
and
energy.
D.
PERFORMANCE BASED OBJECTIVES
A.
NATIONAL SCIENCE EDUCATION CONTENT STANDARDS
NSES
CONTENT STANDARD C: As a result of their activities in
grades 9-12, all students should develop an understanding of
·
Interdependence
of organisms
·
Matter,
energy, and organization in living systems
Science
and Technology
NSES
CONTENT
STANDARD E: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Abilities
of technological design
·
Understandings
about science and technology
History
and
Nature of Science
NSES
CONTENT
STANDARD G: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Science
as a human endeavor
·
Nature
of scientific knowledge
B.
SB4
Students
will assess the dependence of all organisms on one another and the flow
of
energy and matter within their ecosystems.
C.
ORIGINAL STANDARDS 2000
STANDARD
2
Students
know and understand common properties, forms,
interactions and transformations of matter and energy.
D.
PERFORMANCE
BASED OBJECTIVES
PERFORMANCE
BASED OBJECTIVES
1.
The
students will investigate food chains and webs to view the
breakdown and reassembly of the invisible units of matter as it is
transferred
from one organism to another. They will
begin with the local food webs they can study directly.
Films of food webs in other ecosystems will
be viewed to supplement the direct investigations.
The students will use computers to design a
visual representation of a food chain and a food web.
2.
The
students will examine
examples of the consequences of human “involvement” within the
ecosystems (i.e.
fire-prevention efforts in national forests). After this study the
students
will find examples of current proposals to “change/save” parts of an
ecosystem. In small groups the students
will research one proposal and will predict the consequences, negative
and
positive, if it is carried out. Students
will write or visit appropriate authorities (i.e. members of state or
national
government) giving their findings and suggestions for the future of the
proposal. (In this examination, students
will apply this quote by A. Leopold, “The first rule of intelligent
tinkering
is to save all the parts.”)
3.
The
students will ponder,
research, deliberate and discuss the answers to the questions, “What
does this
knowledge of the flow of matter and energy through living systems
suggest for
human beings?” Ideas will be recorded in
the student’s science notebook and eventually will be incorporated in a
formal
paper to be presented to the school community.
The student may choose to include a multimedia presentation such
as
Power Point.
4.
The
students, individually or in small groups, will choose one
area of matter/energy transfer to study in depth to determine the long
range
effects on their ecosystem; these might include topics such as the use
of
fossil fuels or recycling. After
determining the negatives and positives, the results will be present in
the
form of a persuasive argument. These may be papers, skits, media
productions,
or any other form the student chooses.
A.
NATIONAL
SCIENCE EDUCATION CONTENT STANDARDS
NSES
CONTENT
STANDARD C: As a result of their activities in grades 9-12, all
students should
develop an understanding of
·
The
cell
·
Molecular
basis of heredity
·
Biological
evolution
·
Interdependence
of organisms
·
Matter,
energy, and organization in living systems
·
Behavior
of organisms
Science
and Technology
NSES
CONTENT
STANDARD E: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Abilities
of technological design
·
Understandings
about science and technology
History
and
Nature of Science
NSES
CONTENT
STANDARD G: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Science
as a human endeavor
·
Nature
of scientific knowledge
B.
SB1.
Students
will analyze the nature of the relationships between structures and
functions
in living cells.
C.
ORIGINAL STANDARDS 2000
STANDARD
3
Students
know and understand the characteristics and structure
of living things, the processes of life, and how living things interact
with
each other and their environment.
D.
PERFORMANCE
BASED OBJECTIVES
1.
The
students will visit the Cells
Alive! web site at http://www.cellsalive.com/ to learn about
cells. The can see cells dividing, white
blood cells going after bacteria, relative sizes of various viruses,
bacteria
and red blood cells, how living cells “keep in shape”; or how immune
cells
become involved when there is a splinter or a scratch.
They will participate in the activities
offered and assess their knowledge. Students will also use a series of
online
multimedia presentations to observe different cellular processes in
action such as mitosis and meiosis, active
and passive transport
as well as the movement of water molecules in hypotonic, hypertonic and
isotonic solutions.
2.
After
studying cells each
student will do a creative writing project on the “Life and Times of a
Cell”. These could be short stories, a
skit, a poem, or another format of choice. Students will also make
2-dimensional diagrams that compare cell structures and functions to
the
components of a working “city.”
3.
Students
will use different
materials to create a 3-dimensional model of a cell.
4.
The
students will participate
in experiments that demonstrate the transport of different materials
through
cell membranes. Their observations, results and conclusions will be
documented
in lab report format.
5.
For cell
division the
students will use Cells Alive and will grow amoebas or other
one-celled
organisms and will watch them divide and will record their findings in
their
science notebooks.
A.
NATIONAL
SCIENCE EDUCATION CONTENT STANDARDS
NSES
CONTENT
STANDARD C: As a result of their activities in grades 9-12, all
students should
develop an understanding of
·
The
cell
·
Molecular
basis of heredity
·
Biological
evolution
·
Interdependence
of organisms
·
Matter,
energy, and organization in living systems
·
Behavior
of organisms
Science
and Technology
NSES
CONTENT
STANDARD E: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Abilities
of technological design
·
Understandings
about science and technology
History
and
Nature of Science
NSES
CONTENT
STANDARD G: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Science
as a human endeavor
·
Nature
of scientific knowledge
B.
SB2.
Students
will analyze how biological traits are passed on to successive
generations.
C.
ORIGINAL STANDARDS 2000
STANDARD
3
Students
know
and understand the characteristics and structure of living things, the
processes of life, and how living things interact with each other and
their
environment.
STANDARD
6
Students
understand that science is a search for patterns in nature and that
these
patterns suggest broad concepts that link the scientific disciplines.
D.
PERFORMANCE
BASED OBJECTIVES
1.
In
seminar discussions and
in quizzes the students will demonstrate their knowledge of the four
basic
types of organic compounds and their functions in the cell, based on
information in the Cells Alive web site and from readings and
experience.
2.
Students
will evaluate the
importance of water in living systems by looking at what happens when
there is
not enough water and when there is too much.
They will record their findings in their science notebooks along
with
any articles, or other sources they have found.
3.
Students
will study
Mendelian genetics and create monohybrid and dihybrid Punnett Squares
to
determine the possible offspring of different genetic crosses and
analyze the
outcomes in terms of phenotypic and genotypic ratios.
4.
Students
will conduct a
laboratory investigation to extract DNA from different sources such as
cow
livers, spinach, and peas.
5.
Using
computer programs and
lab kits the students will under the guidance of a mentor demonstrate
replications, transcription and translation.
They will construct a double helix using craft supplies of their
choice
that includes a key with the DNA sequence for their model to be
displayed in
the school.
6.
The
students will examine
the ramifications of genetic manipulation.
Using primary sources they will find studies dealing with this
topic and
will look at positive/negative results, as well as implications for
both short
and long term effects. They will
consider the question “why” and will record their thoughts in their
science
notebooks.
7.
The
students may design and
carry out experiments dealing with photosynthesis and cellular
respiration.
Students will also use the chemical equations for these processes to
create
diagrams and models.
8.
The
students will prepare a
three-generation (or more) pedigree chart of a family demonstrating
genetic
traits. These may be pictorial or
written. The students will identify
dominant traits, traits that “skip” a generation, etc.
They may also note invisible traits such as a
tendency toward a disease, a talent, etc.
A summary of the findings will be created in chart format.
9.
The
students will investigate the role genetics plays in
agriculture. They will research how
genetic manipulation has produced new varieties of farm plants and
animals. They will have the option of
visiting
local farms and interviewing farmers about the positive and negative
aspects of
the “new” plants and animals. They will
examine varieties of plants, i.e., a regular watermelon and a seedless
one. They will consider the question,
“Since science can “improve” plants and animals, should they do the
same with
humans?”
A.
NATIONAL
SCIENCE EDUCATION CONTENT STANDARDS
Life
Science
NSES
CONTENT
STANDARD C: As a result of their activities in grades 9-12, all
students should
develop an understanding of
·
The
cell
·
Molecular
basis of heredity
·
Biological
evolution
·
Interdependence
of organisms
·
Matter,
energy, and organization in living systems
·
Behavior
of organisms
Science
and Technology
NSES
CONTENT
STANDARD E: As a result of activities in grades 9-12, all students
should
develop an understanding of
·
Abilities
of technological design
·
Understandings
about science and technology
History
and
Nature of Science
NSES
CONTENT
STANDARD G: As a result of activities in grades 9-12, all students
should develop
an understanding of
·
Science
as a human endeavor
·
Nature
of scientific knowledge
B.
SB3.
Students
will derive the relationship between single-celled and multi-celled
organisms
and the increasing complexity of systems.
D.
PERFORMANCE
BASED OBJECTIVES