A Blueprint for Learning
Gateway Science (Biology)
Secondary
Science Resources
The Blueprint for Learning
is a companion document for the Tennessee Curriculum Standards
which are located at
www.tennessee.gov/education. Although the curriculum adopted by
the State Board of Education in its entirety remains on the web for
additional reference, this reformatted version makes the curriculum
more accessible to classroom teachers.
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Gateway Science
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Standard Number: |
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1.0 Cells |
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Performance Indicators |
Reporting |
As documented through
state assessment - |
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State: |
Category |
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A
A
A
A
A |
CB
CB
CP
CP
CP |
At Level 1, the student is
able to
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identify major
cell organelles, given a diagram;
Animal, plant, and bacteria cell overview
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distinguish
between plant and animal cells, given diagrams or scenarios;
Interactive Animal Cell Diagram
Interactive Plant Cell Diagram
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predict the
movement of water molecules across the cell membrane, given
solutions of different concentrations;
Diffusion, Osmosis, Passive and Active Transport
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sequence a
series of diagrams depicting the movement of chromosomes
during mitosis;
Cell Cycle and Mitosis Tutorial
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compare and
contrast the cell cycle in plant and animal cells, given a
diagram or description.
Interactive mitosis tutorial |
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A
A
A
A
A
A
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CB
CB
CP
CP
CP
CP
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At Level 2, the student is
able to
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distinguish
proteins, carbohydrates, lipids, and nucleic acids, given
structural diagrams;
Interactive tutorial: Proteins
Interactive tutorial: Carbohydrates
Interactive tutorial: Lipids
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identify a
positive test for carbohydrates and lipids when given an
experimental procedure, data, and results;
Structural diagrams of organic compounds
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distinguish
between active and passive transport, given examples of
different molecules;
Diffusion, Osmosis, Passive and Active Transport
·
evaluate the
role of meiosis in maintaining genetic variability and
continuity, given a scenario;
Meiosis and genetic variation
Create a mitosis flipbook- student/teacher worksheet
Create a meiosis flipbook (scroll down page to find 5 master
copies in pdf )
Animated comparision of mitosis and meiosis
·
recognize the
significance of homeostasis to the viability of humans and
other organisms, given the definition of homeostasis.
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A |
CB |
At
Level 3, the student is able to
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identify the
biomolecules responsible for communicating, responding,
regulating, or reproducing in the cell. |
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Performance Indicators |
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As documented through
teacher observation - |
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Teacher: |
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At Level 1, the student is
able to
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demonstrate
appropriate use and care of compound light microscopes;
10 steps for Using a Microscope properly
Microscope Activities
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examine plant
and animal cells using compound light microscopes;
Gallery of Microscopic cells pics
Eukaryotic Cell animation
Prokaryotic Cell animation
·
create a 3-D
model of a typical cell;
A neat way to create a 3-D model of a cell
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prepare wet
mount slides;
How to prepare a wet mount slide
·
demonstrate
molecular movement across a semi-permeable membrane;
Interactive site for active and passive transport
·
model or
observe the movement of chromosomes during mitosis in plant
and animal cells;
Interactive model of Mitosis
The Cell Cycle and Mitosis
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model or
observe the movement of chromosomes during meiosis in plant
and animal cells;
Meiosis and genetic variation
·
research
careers that relate to the study of cells, such as
microscopist, cytologist, oncologist, medical technician,
and biochemist;
Careers in Biology
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write a
persuasive essay, supported by current scientific journals,
to relate certain lifestyle choices to a particular disease;
Articles related to lifestyle choices and disease
·
create a time
line that traces the development of microscopes and
correlates this information to cytology.
Timeline of Microscopes |
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At
Level 2, the student is able to
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construct a
model of each of the biomolecules, given a structural
diagram;
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conduct an
experiment to identify carbohydrates and lipids;
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prepare a slide
using proper staining technique;
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record
nutritional intake for one week, calculating daily caloric
intake for each biomolecule, and evaluate the diet to
develop an improvement plan;
·
calculate the
ratio of cell surface area to cell volume; |
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At
Level 3, the student is able to
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design and
conduct a controlled experiment to observe enzymatic actions
and identify possible sources of experimental error;
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conduct a test
to detect the presence of proteins. |
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Standard Number : |
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2.0
Interactions |
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Performance Indicators |
Reporting |
As documented throughout
state assessment - |
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State: |
Category |
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A
A |
IB
IB |
At Level 1, the student is
able to
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identify
commensalism, parasitism, and mutualism, given a scenario
with examples;
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classify
organisms as producers, consumers, or decomposers, given
their behaviors and environment. |
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A
A
A
A
A |
IB
IE
IE
IE
IE |
At Level 2, the student is
able to
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identify
abiotic and biotic factors, given a description or an
illustration of an ecosystem;
·
make inferences
about how environmental factors would affect population
growth, given a scenario;
·
examine the
energy flow and loss through the trophic levels of an
ecosystem, given an illustration of an energy pyramid;
·
determine the
effects of human activities on ecosystems, given a scenario;
·
analyze and
interpret population growth curves, given graphs. |
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A |
IB |
At
Level 3, the student is able to
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distinguish
between a learned and an innate behavior, given a
description of that behavior in a scenario. |
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Performance Indicators |
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As documented through
teacher observation - |
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Teacher: |
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At Level 1, the student is
able to
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compare and
contrast the three types of symbiotic relationships:
parasitism, mutualism, and commensalism;
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recognize the
general conditions necessary to maintain an ecosystem by
constructing a model of an ecosystem;
·
describe the
niche and habitat of an organism in an ecosystem;
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recognize the
kinds of organisms always found at the base of a food chain;
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identify the
producers, consumers, and decomposers in a food chain;
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observe an
outdoor habitat, identifying the abiotic and biotic factors,
types of populations, producers, consumers, and decomposers;
·
research
careers that relate to the environment, such as urban
planner, forester, park ranger, environmental engineer, and
environmental lawyer. |
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At Level 2, the student is
able to
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use current
publications to research examples where human influence has
changed an ecosystem, communicate findings through written
and/or oral presentation;
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investigate the
impact of parasites on human population;
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investigate the
effects of acid rain on the environment;
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maintain a
model of an ecosystem;
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illustrate the
flow of energy through an ecosystem from the sun to
producers, consumers, and decomposers;
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collect data,
construct and interpret population graphs to determine if
the population is stable, increasing, or declining. |
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Standard Number: |
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3.0 Photosynthesis and
Respiration
Dingo
Game on
Photosynthesis and Respiration |
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Performance Indicators |
Reporting |
As
documented through state assessment - |
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State: |
Category |
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A
A
A |
PR
PR
PR |
At Level 1, the student is
able to
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identify the
reactants and products of photosynthesis and respiration,
given the equations;
·
identify the
cell organelle in which photosynthesis occurs, given a
diagram of a plant;
·
interpret a
diagram of the oxygen-carbon dioxide cycle, given a diagram. |
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A
A |
PR
PR |
At Level 2, the student is
able to
·
distinguish
between aerobic and anaerobic respiration in terms of the
presence or absence of oxygen and ATP produced;
·
relate the
interdependence of the processes of photosynthesis and
respiration to living organisms, given a diagram or a
description. |
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A |
PR |
At
Level 3, the student is able to
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recognize the
transfer of energy from respiration to cellular work, given
an equation or diagram of the ATP cycle. |
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Performance Indicators |
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As documented through
teacher observation - |
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Teacher: |
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At Level 1, the student is
able to
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identify and
explore the chloroplasts in a leaf such as Elodea;
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construct a
model or diagram of the oxygen-carbon dioxide cycle;
·
research
careers that relate to photosynthesis and respiration, such
as horticulturist, brewer, environmentalist, paper
manufacturer and agricultural extension agent;
·
model or
illustrate the paths of water, oxygen, nitrogen, and carbon
dioxide through a plant. |
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At Level 2, the student is
able to
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construct
charts comparing reactants, products, and energy transfer in
photosynthesis and respiration;
·
demonstrate
that oxygen is made during photosynthesis in a laboratory
investigation;
·
sequence the
major events of cellular respiration and anaerobic
respiration;
·
investigate the
importance of fermentation to the pharmaceutical,
agricultural, and food and beverage industries. |
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At Level 3, the student is
able to
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produce concept
maps of the major events occurring in the light dependent
and light independent reactions;
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compare the
efficiency of aerobic and anaerobic respiration. |
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Standard Number: |
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4.0
Genetics and Biotechnology |
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Performance Indicators |
Reporting |
As
documented through state assessment - |
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State: |
Category |
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A
A
A
A |
G
G
G
B |
At Level 1, the student is
able to
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distinguish
between asexual and sexual methods of reproduction, using a
scenario;
·
identify the
dominant trait, given the results of a monohybrid cross in a
scenario;
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determine the
genotype and phenotype of a monohybrid cross, given a Punnet
square;
·
relate changes
in the DNA instructions to cause mutations, given diagrams. |
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A
A
A
A
A
A |
B
G
G
B
B
G |
At Level 2, the student is
able to
·
recognize the
two major functions of DNA as replication and protein
synthesis, given diagrams showing a strand of bases with a
complimentary strand;
·
identify the
sex chromosomes in humans and recognize inheritance patterns
that are sex-linked, using a pedigree;
·
analyze modes
of inheritance including co-dominance, incomplete dominance,
polygenic, and multiple alleles using genetic problems or
Punnet Squares;
·
analyze a
series of DNA bases to determine the sequence which
demonstrates a mutation;
·
describe and
analyze DNA fingerprinting using an illustration of DNA
bands;
·
determine the
probability of having a child with cystic fibrosis, sickle
cell anemia, or Tay-Sachs if both parents are carriers,
given a scenario or genetic problem. |
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A
A |
B
G |
At
Level 3, the student is able to
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differentiate
the processes of transcription and translation, given
diagrams;
·
analyze a
dihybrid cross given a completed Punnet square to determine
the probability of a particular trait. |
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Performance Indicators |
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As documented through
teacher observation - |
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Teacher: |
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At Level 1, the student is
able to
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construct a
model of DNA;
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construct a
monohybrid cross given a genetic problem to solve;
·
distinguish
between dominant and recessive traits given the results of a
monohybrid cross;
·
research
careers that relate to genetics and inheritance, such as lab
technician, forensic pathologist, livestock breeder, medical
doctor, and reproductive endocrinologist. |
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At Level 2, the student is
able to
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identify a DNA
molecule when given a choice of several structural formulas;
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construct a
chart comparing DNA with RNA for shape, functions, and
molecular make-up;
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model the
processes of replication, transcription, and translation;
·
construct a
dihybrid cross and predict genotypic and phenotypic ratios;
·
use a
microscope or hand lens to diagram and label different types
of reproductive cells;
·
participate in
a classroom debate regarding the scientific and ethical
issues surrounding current emerging DNA technologies and/or
the Human Genome Project;
·
model the
process of recombinant DNA. |
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Standard Number: |
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5.0
Diversity |
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Performance Indicators |
Reporting |
As documented through
state assessment - |
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State: |
Category |
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A
A
A |
DC
DC
DC |
At Level 1, the student is
able to
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infer animals
or plants indigenous to an environment, given pictures or
diagrams of the organisms and a description of the
environment;
·
infer the biome
in which an animal or plant lives, given a description of
the organism and pictures of various biomes;
·
infer the
relatedness of different organisms using the Linnean system
of classification, given pictures of a variety of different
plants or animals and a key to classification of organisms. |
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A
A
A
A
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DC
DL
DL
DL
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At Level 2, the student is
able to
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determine the
genus and species of an organism, given a dichotomous key
containing descriptions of the characteristic of each
classification level;
·
determine
whether an insect undergoes complete or incomplete
metamorphosis, given pictures or diagrams of the insect in
its stages of development;
·
infer the body
symmetry of an organism, given a diagram or picture of the
organism;
·
predict the
function of a system or organ, given structural
descriptions, whether in the earthworm, crayfish, frog, or
human. |
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A
A |
DL
DL |
At
Level 3, the student is able to
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predict the
function of an organ, given a description of its component
tissues;
·
compare and
contrast life cycles of various organisms to include
alternation of generations, given pictorial representations. |
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Performance Indicators |
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As documented through
teacher observation - |
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Teacher: |
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At Level 1, the student is
able to
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develop a
rationale for a system of classification, given a group of
objects to classify;
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examine plant
and animal specimens and compare and contrast their
structural components, symmetry, and life cycles;
·
illustrate or
construct a biome for specific plant and animal species by
determining the needs of the organisms;
·
predict the
types of plants and animals indigenous to a biome by
determining the characteristics of the biome;
·
research
careers that relate to diversity, such as farmer, zoo
keeper, pest control consultant, entomologist, taxonomist,
lab technician, naturalist, and botanist. |
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At Level 2, the student is
able to
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relate the
advantages and disadvantages of various types of
classification systems, including the Aristotelian, Linnean,
and DNA sequencing systems;
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model or
observe the stages of complete and incomplete metamorphosis;
·
model or
observe body plans with asymmetry, radial, and bilateral
symmetry;
·
observe or
illustrate the alternation of generations in a plant or
animal species;
·
predict the
function of a system or organs given the characteristics of
the organs contained within that system;
·
classify a
group of organisms, given a dichotomous key with
characteristics of the organisms. |
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Standard Number: |
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6.0
Biological Evolution |
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Performance Indicators |
Reporting |
As
documented through state assessment - |
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State: |
Category |
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A
A |
IB
IE |
At Level 1, the student is
able to
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differentiate
between the relative age of various fossils in sedimentary
rock, given a diagram of rock strata;
·
predict how
environmental changes will encourage or discourage the
formation of a new species or extinction of an existing
species, given a written scenario. |
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A
A
A |
DC
DC
IE |
At Level 2, the student is
able to
·
transfer
knowledge of divergent evolution, as in Darwin’s finches, to
determine why species with a common ancestor have adapted
differently, given a diagram of the various species;
·
compare
homologous structures in species to determine the
relatedness of certain species, given diagrams or pictures
of each;
·
differentiate
between natural selection and selective breeding, given a
scenario. |
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A |
B |
At
Level 3, the student is able to
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recognize the
relatedness of species using DNA strands. |
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Performance Indicators |
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As documented through
teacher observation - |
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Teacher: |
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At Level 1, the student is
able to
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compare and
contrast the processes of fossil formation;
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construct
“mock” fossils using casts and molds;
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collect and/or
observe various fossils and relate them to biogeographical
changes;
·
research
careers that relate to biological evolution, such as
farmers, field biologist, geologist, archeologist,
epidemiologist, and anthropologist. |
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At Level 2, the student is
able to
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calculate the
approximate age of a fossil, given the amount of Carbon 14
atoms found in the fossil and the half-life of C-14;
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compare and
contrast the homologous and analogous structures of
organisms to demonstrate relatedness;
·
view embryos of
different vertebrates to compare their early embryonic
development to show relatedness;
·
analyze a graph
of the population distribution of peppered moths as their
environment changed;
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predict the
role of mutations in the survival of a population. |
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At Level 3, the student is
able to
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develop a
diorama or time line that depicts change of organisms
through time;
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collect data
from local or regional records regarding population counts
of a specific species found in the area and hypothesize what
events might affect populations. |
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Resources,
Podcasts
Kindergarten
First Grade
Second Grade
Third Grade
Fourth Grade
Fifth Grade
Sixth Grade
Seventh Grade
Eighth Grade
Biology
Chemistry
Science Fair
Dynamic Curriculum
Math/Science Integration
Science Online
Math Online
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