To create a custom lesson, click on the check boxes of the files you’d like to add to your
lesson and then click on the Build-A-Lesson button at the top. Click on the resource title to View, Edit, or Assign it.
MS.BIO.Biology
Biology
Adaptations and Evolution
BIO.4. Students will analyze and interpret evidence to explain the unity and diversity of life.
BIO.4.4. Design models and use simulations to investigate the interaction between changing environments and genetic variation in natural selection leading to adaptations in populations and differential success of populations.
BIO.4.5. Use Darwin's Theory to explain how genetic variation, competition, overproduction, and unequal reproductive success acts as driving forces of natural selection and evolution.
BIO.2. Students will explain that cells transform energy through the processes of photosynthesis and cellular respiration to drive cellular functions.
BIO.2.2. Develop models of the major reactants and products of photosynthesis to demonstrate the transformation of light energy into stored chemical energy in cells. Emphasize the chemical processes in which bonds are broken and energy is released, and new bonds a
BIO.2.3. Develop models of the major reactants and products of cellular respiration (aerobic and anaerobic) to demonstrate the transformation of the chemical energy stored in food to the available energy of ATP. Emphasize the chemical processes in which bonds are
BIO.2.4. Conduct scientific investigations or computer simulations to compare aerobic and anaerobic cellular respiration in plants and animals, using real world examples.
BIO.2.5. Enrichment: Investigate variables (e.g., nutrient availability, temperature) that affect anaerobic respiration and current real-world applications of fermentation.
BIO.5.2. Analyze models of the cycling of matter (e.g., carbon, nitrogen, phosphorus, and water) between abiotic and biotic factors in an ecosystem and evaluate the ability of these cycles to maintain the health and sustainability of the ecosystem.
BIO.5.3. Analyze and interpret quantitative data to construct an explanation for the effects of greenhouse gases on the carbon dioxide cycle and global climate.
BIO.5.5. Evaluate symbiotic relationships (e.g., mutualism, parasitism, and commensalism) and other co-evolutionary (e.g., predator-prey, cooperation, competition, and mimicry) relationships within specific environments.
BIO.5.8. Enrichment: Use an engineering design process to create a solution that addresses changing ecological conditions (e.g., climate change, invasive species, loss of biodiversity, human population growth, habitat destruction, biomagnification, or natural phen
BIO.3A. Students will develop and use models to explain the role of meiosis in the production of haploid gametes required for sexual reproduction.
BIO.3A.1. Model sex cell formation (meiosis) and combination (fertilization) to demonstrate the maintenance of chromosome number through each generation in sexually reproducing populations. Explain why the DNA of the daughter cells is different from the DNA of the
BIO.3A.3. Investigate chromosomal abnormalities (e.g., Down syndrome, Turner’s syndrome, and Klinefelter syndrome) that might arise from errors in meiosis (nondisjunction) and how these abnormalities are identified (karyotypes).
BIO.3B. Students will analyze and interpret data collected from probability calculations to explain the variation of expressed traits within a population.
BIO.3B.1. Demonstrate Mendel’s law of dominance and segregation using mathematics to predict phenotypic and genotypic ratios by constructing Punnett squares with both homozygous and heterozygous allele pairs.
BIO.3B.4. Analyze and interpret data (e.g., pedigrees, family, and population studies) regarding Mendelian and complex genetic traits (e.g., sickle-cell anemia, cystic fibrosis, muscular dystrophy, color-blindness, and hemophilia) to determine patterns of inheritan
BIO.3C. Students will construct an explanation based on evidence to describe how the structure and nucleotide base sequence of DNA determines the structure of proteins or RNA that carry out essential functions of life.
BIO.3C.1. Develop and use models to explain the relationship between DNA, genes, and chromosomes in coding the instructions for the traits transferred from parent to offspring.
BIO.3C.3. Use models to predict how various changes in the nucleotide sequence (e.g., point mutations, deletions, and additions) will affect the resulting protein product and the subsequent inherited trait.
BIO.3C.4. Research and identify how DNA technology benefits society. Engage in scientific argument from evidence over the ethical issues surrounding the use of DNA technology (e.g., cloning, transgenic organisms, stem cell research, and the Human Genome Project, ge
BIO.1B. Students will analyze the structure and function of the macromolecules that make up cells.
BIO.1B.1. Develop and use models to compare and contrast the structure and function of carbohydrates, lipids, proteins, and nucleic acids (DNA and RNA) in organisms.
BIO.1C. Students will relate the diversity of organelles to a variety of specialized cellular functions.
BIO.1C.1. Develop and use models to explore how specialized structures within cells (e.g., nucleus, cytoskeleton, endoplasmic reticulum, ribosomes, Golgi apparatus, lysosomes, mitochondria, chloroplast, centrosomes, and vacuoles) interact to carry out the functions
BIO.1D. Students will describe the structure of the cell membrane and analyze how the structure is related to its primary function of regulating transport in and out of cells to maintain homeostasis.
BIO.1D.1. Plan and conduct investigations to prove that the cell membrane is a semi-permeable, allowing it to maintain homeostasis with its environment through active and passive transport processes.
BIO.1D.2. Develop and use models to explain how the cell deals with imbalances of solute concentration across the cell membrane (i.e., hypertonic, hypotonic, and isotonic conditions, sodium/potassium pump).
BIO.1E. Students will develop and use models to explain the role of the cell cycle during growth, development, and maintenance in multicellular organisms.
BIO.1E.1. Construct models to explain how the processes of cell division and cell differentiation produce and maintain complex multicellular organisms.
BIO.1E.3. Relate the processes of cellular reproduction to asexual reproduction in simple organisms (i.e., budding, vegetative propagation, regeneration, binary fission). Explain why the DNA of the daughter cells is the same as the parent cell.
BOT.2. Students will identify evolutionary modifications necessary for the terrestrial survival of plants.
BOT.2.2. Referencing the USDA plants database, identify, compare, and contrast seedless, naked seed, and enclosed-seed modifications for reproduction. Calculate the occurrence of seed types in given habitats.
BOT.2.4. Research information to develop, produce, and communicate a scientifically justifiable argument for the rapid amplification and success of angiosperm compared to other plant divisions.
BOT.3. Students will characterize the reproductive strategies of plants.
BOT.3.1. Describe the various processes of asexual reproduction and vegetative propagation used by plants. Communicate the importance of these reproductive methods in regard to human food production.
BOT.3.3. Compare and contrast the consequences of the following reproductive methods: asexual reproduction, vegetative propagation, and sexual reproduction.
BOT.3.5. Compare the similarities between corresponding plant reproductive structures from a variety of species. Record via drawings of observed dissection specimens, and explain the similarities and differences observed.
BOT.3.6. Identify differences in flower structure and shape. Provide a rationale that explains the value of these differences in flower structure to reproductive success (e.g., pollinators, flower shape, smell, color, size, orientation).
BOT.3.8. Using laboratory data, correctly categorize fruits, vegetables, nuts, modified stems, or other plant parts. Compare the scientific definitions of these terms to those used by the general public/society and the USDA to categorize food.
BOT.1. Students will investigate the morphology, anatomy, and physiology of plants.
BOT.1.1. Analyze models (3-D, paper, and/or computer-based) to distinguish the basic morphology of the plant kingdom, with attention to structures and their related functions. Use cladograms or phylogenetic trees to identify evolutionary features that distinguish
BOT.1.10. Identify and compare various live plant examples to explore plant morphological diversity, including leaf number, structure, and arrangement; root modifications; and flower structure and arrangement. Produce a visual product (e.g., an electronic presentat
BOT.1.11. Compare and contrast functions of the various characteristics found in plant divisions and utilize dichotomous keys to identify plant species.
BOT.1.2. Using microscopes, observe, identify, record, and analyze (e.g., see and draw) cells and cell structures unique to plants. Use data measurements obtained from microscopy to compare the plant cells and organelle sizes between various examples (e.g., elodea
BOT.1.5. Calculate surface area of leaves/roots, and compare surface areas of various plant specimens to explain adaptations of the various plant types.
BOT.1.9. Communicate the importance of carbon, hydrogen, oxygen, phosphorus, and nitrogen cycles to plant physiology through graphics such as poster or computer presentations.
CHE.4. Students will demonstrate an understanding of the types of bonds and resulting atomic structures for the classification of chemical compounds.
CHE.4.1. Develop and use models (e.g., Lewis dot, 3-D ball-stick, 3-D printing, or simulation programs such as PhET) to predict the type of bonding between atoms and the shape of simple compounds.
CHE.2. Students will demonstrate an understanding of the atomic structure and the historical developments leading to modern atomic theory.
CHE.2.2. Construct models (e.g., ball and stick, online simulations, mathematical computations) of atomic nuclei to explain the abundance weighted average (relative mass) of elements and isotopes on the published mass of elements.
CHE.7.2. Enrichment: Use an engineering design process to develop models (e.g., online simulations or student interactive activities) to explain and predict the behavior of each state of matter using the movement of particles and intermolecular forces to explain t
CHE.7.4. Use mathematical computations to describe the relationships comparing pressure, temperature, volume, and number of particles, including Boyle’s law, Charles’s law, Dalton’s law, combined gas laws, and ideal gas laws.
CHE.7.5. Enrichment: Use an engineering design process and online simulations or lab investigations to design and model the results of controlled scientific investigations to produce mathematical evidence that confirms the gas-laws relationships.
CHE.7.6. Use the ideal gas law to support the prediction of volume, mass, and number of particles produced in chemical reactions (i.e., gas stoichiometry).
CHE.7.7. Plan and conduct controlled scientific investigations to produce mathematical evidence that confirms that reactions involving gases conform to the law of conservation of mass.
CHE.7.8. Enrichment: Using gas stoichiometry, calculate the volume of carbon dioxide needed to inflate a balloon to occupy a specific volume. Use an engineering design process to design, construct, evaluate, and improve a simulated air bag.
CHE.5. Students will investigate and understand the accepted nomenclature used to identify the name and chemical formulas of compounds.
CHE.5.1. Use the periodic table and a list of common polyatomic ions as a model to derive chemical compound formulas from compound names and compound names from chemical formulas.
CHE.5.2. Generate formulas of ionic and covalent compounds from compound names. Discuss compounds in everyday life and compile lists and uses of these chemicals.
CHE.5.3. Generate names of ionic and covalent compounds from their formulas. Name binary compounds, binary acids, stock compounds, ternary compounds, and ternary acids.
CHE.12. Enrichment: Students will understand that the bonding characteristics of carbon allow the formation of many different organic molecules with various sizes, shapes, and chemical properties.
CHE.12.1. Enrichment: Construct explanations to explain the bonding characteristics of carbon that result in the formation of basic organic molecules.
CHE.3. Students will demonstrate an understanding of the periodic table as a systematic representation to predict properties of elements.
CHE.3.1. Explore and communicate the organization of the periodic table, including history, groups, families, family names, metals, nonmetals, metalloids, and transition metals.
CHE.3.2. Analyze properties of atoms and ions (e.g., metal/nonmetal/metalloid behavior, electrical/heat conductivity, electronegativity and electron affinity, ionization energy, and atomic/ionic radii) using periodic trends of elements based on the periodic table.
CHE.10.2. Enrichment: Classify chemical reactions and phase changes as exothermic or endothermic based on enthalpy values. Use a graphical representation to illustrate the energy changes involved.
CHE.10.3. Enrichment: Analyze and interpret data from energy diagrams and investigations to support claims that the amount of energy released or absorbed during a chemical reaction depends on changes in total bond energy.
CHE.10.4. Enrichment: Use mathematical and computational thinking to solve problems involving heat flow and temperature changes, using known values of specific heat and latent heat of phase change.
CHE.8. Students will demonstrate an understanding of the nature of properties of various types of chemical solutions.
CHE.8.1. Use mathematical and computational analysis to quantitatively express the concentration of solutions using the concepts such as molarity, percent by mass, and dilution.
CHE.8.2. Develop and use models (e.g., online simulations, games, or video representations) to explain the dissolving process in solvents on the molecular level.
CHE.8.6. Design, conduct, and communicate the results of experiments to produce a specified volume of a solution of a specific molarity, and dilute a solution of a known molarity.
CHE.6. Students will demonstrate an understanding of the types, causes, and effects of chemical reactions.
CHE.6.1. Develop and use models to predict the products of chemical reactions (e.g., synthesis reactions; single replacement; double displacement; and decomposition, including exceptions such as decomposition of hydroxides, chlorates, carbonates, and acids). Discu
ENV.4. Students will demonstrate an understanding of the interdependence of human sustainability and the environment.
ENV.4.1. Identify human impact and develop a solution for protection of the atmosphere, considering pollutants (e.g., acid rain, air pollution, smog, ozone layer, or increased levels of greenhouse gases) and the impacts of pollutants on human health (e.g., asthma,
ENV.4.2. Evaluate data and other information to explain how key natural resources (e.g., water sources, fertile soils, concentrations of minerals, and fossil fuels), natural hazards, and climate changes influence human activity (e.g., mass migrations, human health
ENV.4.4. Enrichment: Explore online resources related to air pollution to determine air quality in a geographic area and communicate the possible effects on the environment and human health.
ENV.2. Students will relate the impact of human activities on the environment, conservation activities, and efforts to maintain and restore ecosystems.
ENV.2.5. Research various resources related to water quality and pollution (e.g., nonfictional text, EPA’s Surf Your Watershed, MDEQ publications) and communicate the possible effects on the environment and human health.
ENV.3. Students will discuss the direct and indirect impacts of certain types of human activities on the Earth’s climate.
ENV.3.1. Use a model to describe cycling of carbon through the ocean, atmosphere, soil, and biosphere and how increases in carbon dioxide concentrations have resulted in atmospheric and climate changes.
ENV.3.2. Interpret data and climate models to predict how global and regional climate change can affect Earth’s systems (e.g., precipitation, temperature, impacts on sea level, global ice volumes, and atmosphere and ocean composition).
ENV.1. Students will investigate the interdependence of diverse living organisms and their interactions with the components of the biosphere.
ENV.1.3. Use models to explain why the flow of energy through an ecosystem can be illustrated by a pyramid with less energy available at the higher trophic levels compared to lower levels.
ENV.1.4. Describe symbiotic relationships (e.g., mutualism, parasitism, and commensalism) and other co-evolutionary (e.g., predator-prey, cooperation, competition, and mimicry) relationships within specific environments.
ESS.4. Students will develop an understanding of Earth’s resources and the impact of human activities.
ESS.4.1. Research, evaluate, and communicate about how human life on Earth shapes Earth’s systems and responds to the interaction of Earth’s systems (e.g., geosphere, hydrosphere, atmosphere, and biosphere). Examine how geochemical and ecological processes interac
ESS.4.2. Research, assess, and communicate how Earth’s systems influence the distribution of life, including how various natural hazards and geologic events (e.g., volcanic eruptions, earthquakes, landslides, tornadoes, and hurricanes) have shaped the course of hu
ESS.2A. Students will develop an understanding of the structure and composition of Earth and its materials.
ESS.2A.2. Analyze and interpret data to explain and communicate the differentiation of Earth’s physical divisions (e.g., lithosphere and asthenosphere) using data from seismic waves and Earth’s magnetic field.
ESS.2A.3. Investigate the physical and/or chemical characteristics of mineral specimens to identify minerals and mineral deposits/groups (e.g., oxides, carbonates, halides, sulfides, sulfates, silicates, and phosphates). Include the relationship between chemical bo
ESS.2A.4. Investigate the physical and/or chemical characteristics of rock specimens to identify and categorize igneous, sedimentary, and metamorphic rocks. Include the processes that generate the transformation of rocks.
ESS.2B. Students will develop an understanding of the history and evolution of the earth.
ESS.2B.1. Research, analyze, and evaluate the contributions of William Smith, James Hutton, Nicolaus Steno, Charles Lyell, and others to physical geology.
ESS.2B.2. Apply different techniques (e.g., superposition, original horizontality, cross-cutting relationships, lateral continuity, principle of inclusions, fossil succession, and unconformities) to analyze and interpret the relative age of actual sequences, models
ESS.2B.4. Research, analyze, and explain the origin of geologic features and processes that result from plate tectonics, including sea floor spreading, earthquake activity, volcanic activity, mountain building, and location of natural resources.
ESS.2B.5. Use mathematical representations to interpret seismic graphs to triangulate the location of an earthquake’s epicenter and magnitude and to correlate the frequency and magnitude of an earthquake.
ESS.2B.6. Plan and conduct a scientific investigation to determine how factors (e.g., wind velocity, water velocity, ice, and temperature) may affect the rate of weathering.
ESS.3. Students will develop an understanding of Earth’s systems and cycles.
ESS.3.1. Use mathematical representations (e.g., latitude, longitude, and maps) to calculate the angle of noon solar incidence and relate the value to day length, distribution of sunlight, and seasonal change.
ESS.3.4. Research and communicate information to explain the importance of the transfer of thermal energy among the hydrosphere, geosphere, and atmosphere. Include the unique physical and chemical properties of water, the water cycle, and energy transfer within th
ESS.3.5. Analyze and interpret weather data using maps and global weather systems to explain and communicate the relationships among air masses, pressure systems, and frontal boundaries.
ESS.3.6. Construct an explanation from data sets to obtain and evaluate scientific information to construct scientific arguments on changes in climate caused by various natural factors (e.g., plate tectonics and continent location and Milankovitch cycles) versus a
ESS.3.7. Cite evidence and develop logical arguments to identify the cause and effect relationships of the evolutionary milestones (e.g., photosynthesis and the atmosphere, the evolution of multicellular animals, the development of shells, and the colonization of
ESS.1A. Students will develop an understanding of the universe, its development, immense size, and composition.
ESS.1A.1. Describe the Big Bang theory and summarize observations (e.g., cosmic microwave background radiation, Hubble’s law, and redshift caused by the Doppler effect) as evidence to support the formation and expansion of the universe.
ESS.1A.2. Interpret information from the Hertzsprung -Russell diagram to differentiate types of stars, including our sun, according to size, magnitude, and classification.
ESS.1A.3. Organize and interpret data sets for patterns and trends to compare and contrast stellar evolution in order to explain and communicate how a star changes during its life.
ESS.1B. Students will develop an understanding of Earth, the solar system, and the laws that predict the motion of celestial bodies.
ESS.1B.1. Read and evaluate scientific information for mechanisms/results (e.g., the solar nebular theory) to explain how the solar system was formed. Cite evidence and develop a logical argument.
ESS.1B.2. Compare and contrast celestial bodies (e.g., planets, natural satellites, comets, asteroids, and the Oort cloud) and their motion in our solar system (e.g., revolution and rotation). Build an Analemma calendar.
ESS.1B.3. Design a model (e.g., a gravity simulation using PVC and a neoprene screen) to demonstrate Kepler’s laws and the relationships of the orbits of objects in our solar system. Relate them to Newton’s law of universal gravitation and laws of motion.
FB.4.3. Use models (e.g., Punnett squares) and mathematical reasoning to describe and predict patterns of inheritance of single genetic traits from parents to offspring (e.g., dominant, and recessive traits, incomplete dominance, codominance, multiple alleles, se
FB.4.5. Research and report genetic technologies that may improve the quality of life (e.g., genetic engineering, cloning, gene splicing, DNA testing).
FB.2. Students will demonstrate an understanding of the structure and interactions of matter and how the organization of matter supports living organisms.
FB.2.1. Develop and use simple atomic models to describe the components of elements (e.g., relative position, charges of protons, neutrons, and electrons).
FB.2.2. Obtain and use information about elements (e.g., chemical symbol, atomic number, atomic mass, and group or family) to describe the organization of the periodic table.
FB.2.3. Relate chemical reactivity to an element’s position on the periodic table. Use this information to determine what type of bond will form between elements (ionic, covalent, hydrogen).
FB.5. Students will demonstrate an understanding of Earth’s fossil record and its indication of the diversity of life over time.
FB.5.1. Investigate through research the contributions of scientists to the theory of evolution and evolutionary processes (e.g., Needham, Spallanzani, Redi, Pasteur, Lyell, Lamarck, Malthus, Wallace, Darwin).
FB.5.2. Analyze and interpret data to support claims that different types of fossils provide evidence of the diversity of life that has existed on Earth and of the relationships between past and existing life on Earth.
FB.5.4. Investigate how biological adaptations and genetic variations of traits in a population enhance the probability of survival in an environment (natural selection).
FB.3.2. Use models to investigate and explain structures within living cells that support life (e.g., cytoplasm, cell membrane, cell wall, nucleus, mitochondria, chloroplasts, lysosomes, Golgi, vacuoles, ER, ribosomes, chromosomes, centrioles, cytoskeleton, nucle
FB.3.3. Compare and contrast active and passive cellular transport. Analyze the movement of water across a cell membrane in hypotonic, isotonic, and hypertonic solutions.
FB.3.4. Analyze the relationship between photosynthesis and cellular respiration and explain that relationship in terms of the need for all living things to acquire energy from their environment.
FB.1. Students will relate the importance of significant historical biological experiments and their impact of these on research, development, and society.
FB.1.1. Identify and communicate the contributions of famous scientists and their experiments that formed fundamental scientific principles (e.g., Robert Hooke, Schleiden/ Schwann/Virchow, Griffith, Avery/MacLeod/McCarty, Hershey/Chase, Rosalind Franklin, Gregor
FB.1.2. Trace and model the historical development of scientific ideas and theories (e.g., creation of the microscope, discovery of cells/cell theory, discovery of DNA/RNA, double helical shape of DNA, evolution/natural selection, endosymbiosis) through the devel
FB.1.3. Research, analyze, explain, and communicate how scientific enterprise relates to society and classic inventions (e.g., microscope, blood typing, gel electrophoresis equipment, DNA sequencing technology).
FB.6.3. Obtain, evaluate, and communicate information to explain relationships that exist between abiotic and biotic components of an ecosystem. Explain how changes in biotic and abiotic components affect the balance of an ecosystem over time.
FB.6.6. Engage in scientific argument from evidence to distinguish organisms that exist in symbiotic (mutualism, parasitism, commensalism) or co-evolutionary (predator-prey, cooperation, competition, and mimicry) relationships within ecosystems.
FSL.3A.3. Demonstrate the proper use of safety procedures and scientific laboratory equipment. Select and use appropriate tools and instruments to collect qualitative and quantitative data.
FSL.3A.4. Use mathematical and computational thinking to (1) use and manipulate appropriate metric units, (2) express relationships between variables for investigations, and (3) compare or combine data from two or more simple data presentations (e.g., order or sum
FSL.3B. Students will apply scientific literacy and thinking skills to analyze and interpret data found in various graphics including, but not limited to, those found in sample ACT science passages.
FSL.3B.3. Translate information into a table, graph, or diagram. Determine patterns, trends, and relationships as the values of variables change.
FSL.3B.4. Perform a simple interpolation or simple extrapolation using data in a table or graph. Determine and/or use a simple (e.g., linear) mathematical relationship that exists between data.
FSL.3C. Students will apply scientific literacy and thinking skills to analyze scientific investigations found in various experimental designs including, but not limited to, those found in sample ACT science passages.
FSL.3C.1. Analyze the methods and choice of tools used in simple and complex experimental designs.
GEN.2A.5. Enrichment: Evaluate Beadle and Tatum’s “One Gene-One Enzyme Hypothesis” (1941) in the development of the central dogma (DNA →RNA →Protein). Explain how new discoveries, such as alternate splicing of introns, have led to the revision of the central dogma.
GEN.2B.3. Describe cellular mechanisms that can help to minimize mutations (e.g., cell cycle checkpoints, DNA polymerase proofreading, and DNA repair enzymes).
GEN.2B.5. Enrichment: Use an engineering design process to research the current status of genetic technology and personalized medicine, then propose and test targeted medical or forensic applications.
GEN.5. Students will apply population genetic concepts to explain variability of organisms within a population.
GEN.5.1. Model the inheritance of chromosomes through meiotic cell division and demonstrate how meiosis and sexual reproduction lead to genetic variation in populations.
GEN.5.2. Explain how natural selection acts upon genetic variability within a population and may lead to changes in allelic frequencies over time and evolutionary changes in populations.
GEN.5.7. Enrichment: Use genomic databases for sequence analysis and apply the information to species comparisons, evolutionary relationships, and/or determine the molecular basis of inherited disorders.
GEN.3. Students will investigate biotechnology applications and bioengineering practices.
GEN.3.1. Explain and demonstrate the use of various tools and techniques of DNA manipulation and their applications in forensics (e.g., paternity and victim/suspect identification), agriculture (e.g., pesticide or herbicide resistance, improved yields, and improve
GEN.3.3. Enrichment: Use an engineering design process to refine methodology and optimize the process of genetic transformation, protein purification, and/or gel electrophoresis.
GEN.1A. Students will demonstrate that all cells contain genetic material in the form of DNA.
GEN.1A.1. Model the biochemical structure, either 3-D or computer-based, of DNA based on the experimental evidence available to Watson and Crick (Chargaff, 1950; Franklin, 1951).
GEN.1A.2. Explain the importance of the historical experiments that determined that DNA is the heritable material of the cell (Griffith, 1928; Avery, McCarty & MacLeod, 1944; Hershey & Chase, 1952).
GEN.1A.4. Conduct a standard DNA extraction protocol using salt, detergent, and ethanol from various cell types (e.g., plant, animal, fungus). Compare and contrast the consistency and quantity of DNA extracted from various cell types.
GEN.1B. Students will analyze how the DNA sequence is copied and transmitted to new cells.
GEN.1B.1. Compare and contrast various proposed models of DNA replication (i.e., conservative, semi-conservative, and disruptive). Evaluate the evidence used to determine the mechanism of DNA replication.
GEN.1B.3. Microscopically observe and analyze the stages of the cell cycle (G1-S-G2-M) to describe the phenomenon, and identify methods at different cell cycle checkpoints through which the integrity of the DNA code is maintained.
HAP.5.6. Use technology to plan and conduct an investigation that demonstrates the physiology of muscle contraction, muscle fatigue, or muscle tone. Collect and analyze data to interpret results, then explain and communicate conclusions.
HAP.13.2. Use models to describe structural adaptations present in each organ of the tract and correlate the structures to specific processing of food at each stage (e.g., types of teeth; muscular, elastic wall and mucous lining of the stomach; villi and microvilli
HAP.2. Students will demonstrate an understanding of the relationship of cells and tissues that form complex structures of the body.
HAP.2.1. Analyze the characteristics of the four main tissue types: epithelial, connective, muscle, and nervous. Examine tissues using microscopes and other various technologies.
HAP.11. Students will investigate the structures and functions of the lymphatic system, including the cause and effect of diseases and disorders.
HAP.11.3. Compare and contrast the body’s non-specific and specific lines of defense, including an analysis of the roles of various leukocytes: basophils, eosinophils, neutrophils, monocytes, and lymphocytes.
HAP.11.5. Differentiate the role of B-lymphocytes and T-lymphocytes in the development of humoral and cell-mediated immunity and primary and secondary immune responses.
HAP.11.7. Research and analyze the causes and effects of various pathological conditions (e.g., viral infections, auto-immune disorders, immunodeficiency disorders, and lymphomas).
HAP.8. Students will investigate the structures and functions of the male and female reproductive system, including the cause and effect of diseases and disorders.
HAP.8.1. Compare and contrast the structure and function of the male and female reproductive systems.
HAP.8.4. Construct explanations detailing the role of hormones in the regulation of sperm and egg development. Analyze the role of negative feedback in regulation of the female menstrual cycle and pregnancy.
HAP.12.2. Describe structural adaptations of the respiratory tract and relate these structural features to the function of preparing incoming air for gas exchange at the alveolus.
HAP.12.3. Identify the five mechanics of gas exchange: pulmonary ventilation, external respiration, transport gases, internal respiration, and cellular respiration.
HAP.12.4. Enrichment: Use an engineering design process to develop a model of the mechanisms that support breathing, and illustrate the inverse relationship between volume and pressure in the thoracic cavity.
HAP.1. Students will demonstrate an understanding of how anatomical structures and physiological functions are organized and described using anatomical position.
HAP.1.3. Investigate the interdependence of the various body systems to each other and to the body as a whole.
HAP.7. Students will demonstrate an understanding of the major organs of the endocrine system and the associated hormonal production and regulation.
HAP.7.1. Obtain, evaluate, and communicate information to illustrate that the endocrine glands secrete hormones that help the body maintain homeostasis through feedback mechanisms.
HAP.7.3. Model specific mechanisms through which the endocrine system maintains homeostasis (e.g., insulin/glucagon and glucose regulation; T3 / T4 and metabolic rates; calcitonin/parathyroid and calcium regulation; antidiuretic hormone and water balance; growth h
MAQI.MAQ.4. Students will examine characteristics of specific aquatic ecosystems and the effects of human and natural phenomena on those ecosystems.
MAQI.MAQ.4.1. Compare and contrast the unique biotic and abiotic characteristics of the following selected aquatic ecosystems: intertidal zone, wetlands/estuaries, coral reef, barrier islands, continental slope/shelf, abyss, rivers/streams/watersheds, and lakes/ponds.
MAQI.MAQ.4.2. Recognize representative examples of plants and animals that would be specifically adapted to the aquatic ecosystems, and identify adaptations necessary to survive.
MAQI.MAQ.4.4. Research, analyze, and communicate the effects of urbanization and continued expansion by humans on the aquatic ecosystems’ biodiversity (e.g., land use changes, erosion and sedimentation, over-fishing, invasive/exotic species, and pollution).
MAQI.MAQ.4.5. Explore the importance of species diversity to the biological resources needed by human populations, including food (e.g., aquaculture and mariculture), medicine, and natural aesthetics.
MAQI.MAQ.4.6. Research, analyze, and communicate the effects of natural phenomena (e.g., hurricanes, floods, drought, and sea-level rise) on the aquatic ecosystems.
MAQI.MAQ.4.8. Enrichment: Choose an environmental issue that currently exists in one of the aquatic ecosystems and use an engineering design process to propose and develop a possible solution using scientific knowledge and best management practices (BMPs). Create an en
MAQI.MAQ.2. Students will develop an understanding of the principles of fluid dynamics as it relates to both salt and freshwater systems.
MAQI.MAQ.2.1. Characterize wave features and wave properties, including wavelength, period, wave speed, breakers, and constructive waves and their effects on shoreline communities (e.g., headlands, embayments, shoreline erosion, and deposition).
MAQI.MAQ.2.3. Summarize principles related to currents (e.g., global wind patterns, Coriolis effect, Ekman spiral, surface, thermohaline, upwelling, downwelling, El Niño, La Niña, hurricanes, Barrier Island movement).
MAQI.MAQ.2.4. Research, analyze, and communicate scientific arguments to support climate models that predict how global and regional climate change can affect Earth’s systems (e.g., precipitation and temperature and their associated impacts on sea level, global ice vol
MAQI.MAQ.3. Students will understand the principles of plate tectonics, sea floor spreading, and physical features of oceanic zones.
MAQI.MAQ.3.1. Use geospatial data to analyze, explain, and communicate differences among the major geological features of specific aquatic ecosystems (e.g., plate tectonics, continental rise, continental slope, abyssal plain, trenches, sea mounts, island formation, and
MAQI.MAQ.3.2. Develop an understanding of plate tectonics to predict certain geological features (e.g., sea floor spreading, paleomagnetic measurements, and orogenesis).
MAQI.MAQ.1. Students will develop an understanding of the unique physical and chemical properties of water and how those properties shape life on earth.
MAQI.MAQ.1.3. Diagram, utilizing digital or physical models, the water cycle and how it relates to the total amount of fresh water available to living things at any given time.
MAQI.MAQ.1.6. Enrichment: Use an engineering design process to reduce the effects of pollution in aquatic ecosystems (e.g., microplastics, garbage patches, oil spills, and eutrophication). Students will design a proposed solution based on current research and/or observ
MAQII.MAQ.7. Students will investigate characteristics of aquatic invertebrates.
MAQII.MAQ.7.1. Characterize aquatic representatives of the following taxa: Hemichordata, Urochordata, Cephalochordata, and Vertebrata (including Agnatha, Chondrichthyes, Osteichthyes, Amphibia, Reptilia, Aves, and Mammalia).
MAQII.MAQ.7.6. Using key morphological and physiological adaptations found within aquatic vertebrate taxa, assess how animals interact with their environment to determine their ecological roles.
MAQII.MAQ.6.2. Identify characteristics that are shared and derived using graphical representations of animal evolution (i.e., cladograms and phylogenetic trees) and develop cladograms and phylogenetic trees.
MAQII.MAQ.6.5. Explain various life cycles found among animals (e.g., polyp and medusa in cnidarians, multiple hosts and stages in the platyhelminthic life cycle, and arthropod metamorphosis).
MAQII.MAQ.6.7. Using key morphological and physiological adaptations found within animal taxa, assess how animals interact with their environment to determine their ecological roles.
PHS.5.2. Design and conduct an investigation to study the motion of an object using properties such as displacement, time of motion, velocity, and acceleration.
PHS.5.7. Use mathematical and computational representations to create graphs and formulas that describe the relationships between force, work, and energy (i.e., W=Fd, KE=½ mv^2, PE=mgh, W=KE).
PHS.3. Students will analyze the organization of the periodic table of elements to predict atomic interactions.
PHS.3.1. Use contextual evidence to determine the organization of the periodic table, including metals, metalloids, and nonmetals; symbols; atomic number; atomic mass; chemical families/groups; and periods/series.
PHS.3.3. Using naming conventions for binary compounds, write the compound name from the formula, and write balanced formulas from the name (e.g., carbon dioxide -CO2, sodium chloride - NaCl, iron III oxide- Fe2O3, and calcium bromide -CaBr2).
PHS.3.4. Use naming conventions to name common acids and common compounds used in classroom labs (e.g., sodium bicarbonate (baking soda), NaHCO3; hydrochloric acid, HCl; sulfuric acid, H2SO4; acetic acid (vinegar), HC2H3O2; and nitric acid, HNO3).
PHS.8. Students will demonstrate an understanding of temperature scales, heat, and thermal energy transfer.
PHS.8.2. Apply particle theory to phase change and analyze freezing point, melting point, boiling point, vaporization, and condensation of different substances.
PHS.6.6. Research real-world applications to create models or visible representations of the electromagnetic spectrum, including visible light, infrared radiation, and ultraviolet radiation.
PHS.6.7. Enrichment: Use an engineering design process to design and construct an apparatus that forms images to project on a screen or magnify images using lenses and/or mirrors.
PHS.4. Students will analyze changes in matter and the relationship of these changes to the law of conservation of matter and energy.
PHS.4.1. Design and conduct experiments to investigate physical and chemical changes of various household products (e.g., rusting, sour milk, crushing, grinding, tearing, boiling, and freezing) and reactions of common chemicals that produce color changes or gases.
PHS.4.4. Use mathematical and computational analysis to examine evidence that mass is conserved in chemical reactions using simple stoichiometry problems (1:1 mole ratio) or atomic masses to demonstrate the conservation of mass with a balanced equation.
PHS.9. Students will explore basic principles of magnetism and electricity (e.g., static electricity, current electricity, and circuits).
PHS.9.1. Use digital resources and online simulations to investigate the basic principles of electricity, including static electricity, current electricity, and circuits. Use digital resources (e.g., online simulations) to build a model showing the relationship be
PHS.9.3. Enrichment: Use an engineering design process to construct a working electric motor to perform a task. Communicate the design process and comparisons of task performance efficiencies.
PHS.9.4. Use an engineering design process to construct and test conductors, semiconductors, and insulators using various materials to optimize efficiency.
PHS.7. Students will examine different forms of energy and energy transformations.
PHS.7.1. Using digital resources, explore forms of energy (e.g., potential and kinetic energy, mechanical, chemical, electrical, thermal, radiant, and nuclear energy).
PHS.7.2. Use scientific investigations to explore the transformation of energy from one type to another (e.g., potential to kinetic energy, and mechanical, chemical, electrical, thermal, radiant, and nuclear energy interactions).
PHS.7.3. Using mathematical and computational analysis, calculate potential and kinetic energy based on given data. Use equations such as PE=mgh and KE=½ mv^2.
PHY.4.5. Design, investigate, and collect data on standing waves and waves in specific media (e.g., stretched string, water surface, and air) using online simulations, probe systems, and/or laboratory experiences.
PHY.4.6. Explore and explain the Doppler effect as it relates to a moving source and to a moving observer using online simulations, probe systems, and/or real-world experiences.
PHY.2.10. Apply the effects of the universal gravitation law to generate a digital/physical graph, and interpret the forces between two masses, acceleration due to gravity, and planetary motion (e.g., situations where g is constant, as in falling bodies).
PHY.2.11. Explain centripetal acceleration while undergoing uniform circular motion to explore Kepler’s third law using online simulations, models, and/or probe systems.
PHY.2.5. Use mathematical and computational analysis to derive simple equations of motion for various systems using Newton’s second law (e.g. net force equations).
PHY.2.7. Analyze real-world applications to draw conclusions about Newton’s three laws of motion using online simulations, probe systems, and/or laboratory experiences.
PHY.5.3. Use mathematical and computational analysis to analyze problems dealing with electric field, electric potential, current, voltage, and resistance as related to Ohm’s law.
PHY.5.4. Develop and use models (e.g., circuit drawing and mathematical representation) to explain how electric circuits work by tracing the path of electrons, including concepts of energy transformation, transfer, conservation of energy, electric charge, and resi
PHY.5.5. Design and conduct an investigation of magnetic poles, magnetic flux and magnetic field using online simulations, probe systems, and/or laboratory experiences.
PHY.5.6. Use schematic diagrams to analyze the current flow in series and parallel electric circuits, given the component resistances and the imposed electric potential.
PHY.5.8. Enrichment: Design and construct a simple motor to develop an explanation of how the motor transforms electrical energy into mechanical energy and work.
PHY.5.9. Enrichment: Design and draw a schematic of a circuit that will turn on/off a light from two locations in a room like those found in most homes.
PHY.3. Students will develop an understanding of concepts related to work and energy.
PHY.3.1. Use mathematical and computational analysis to qualitatively and quantitatively analyze the concept of work, energy, and power to explain and apply the conservation of energy.
PHY.3.3. Through real-world applications, draw conclusions about mechanical potential energy and kinetic energy using online simulations and/or laboratory experiences.
PHY.3.4. Design and conduct investigations to compare conservation of momentum and conservation of kinetic energy in perfectly inelastic and elastic collisions using probe systems, online simulations, and/or laboratory experiences.
PHY.3.6. Enrichment: Design, conduct, and communicate investigations that explore how temperature and thermal energy relate to molecular motion and states of matter.
PHY.3.8. Enrichment: Research to compare the first and second laws of thermodynamics as related to heat engines, refrigerators, and thermal efficiency.
PHY.1. Students will investigate and understand how to analyze and interpret data.
PHY.1.1. Investigate and analyze evidence gained through observation or experimental design regarding the one-dimensional (1-D) motion of objects. Design and conduct experiments to generate and interpret graphical evidence of distance, velocity, and acceleration t
PHY.1.2. Interpret and predict 1-D motion based on displacement vs. time, velocity vs. time, or acceleration vs. time graphs (e.g., free-falling objects).
PHY.1.6. Design and mathematically/graphically analyze quantitative data to explore displacement, velocity, and acceleration of various objects. Use probe systems, video analysis, graphical analysis software, digital spreadsheets, and/or online simulations.
ZI.ZOO.4.7. Enrichment: Design, conduct, and communicate results of an experiment demonstrating the importance of flatworms, roundworms, and annelids for human use (e.g., the earthworm in agriculture and the leech in medicine).
ZI.ZOO.4.8. Enrichment: Use an engineering design process to design and construct a system to utilize flatworms, roundworms, or annelids to meet a human need.
ZI.ZOO.2.10. Create a digital or physical model illustrating the anatomy of a cnidarian, citing similarities and differences between polyps and medusas.
ZI.ZOO.2.2. Identify the anatomy and physiology of a sponge, including how specialized cells within sponges work cooperatively without forming tissues to capture and digest food.
ZI.ZOO.2.5. Enrichment: Use an engineering design process to determine the quantity of water that may be absorbed per unit in a natural sponge versus a synthetic sponge.
ZI.ZOO.5. Students will understand the basic structure and function of phylum Arthropoda, and how they demonstrate the characteristics of living things.
ZI.ZOO.5.1. Describe the evolutionary advantages of segmented bodies, hard exoskeletons, and jointed appendages to arthropods and how they contribute to arthropods being the largest phyla in species diversity and the most geographically diverse.
ZI.ZOO.3.8. Enrichment: Use an engineering design process to model the jet propulsion utilized by cephalopods in mechanical design of fluid systems (e.g., improving hydraulic systems).
ZI.ZOO.1.3. Recognize that the classification of living organisms is based on their evolutionary history and/or similarities in fossils and living organisms.
ZI.ZOO.1.5. Design models to illustrate the interaction between changing environments and genetic variation in natural selection leading to adaptations in populations and differential success of populations.
ZII.ZOO.9. Students will understand the structure and function of phylum Chordata, class Aves, and how they demonstrate the characteristics of living things.
ZII.ZOO.9.1. Trace the evolutionary history of modern birds beginning with the theropods. Relate how today’s birds have adapted to changing environments.
Phylum Chordata, Classes Chondrichthyes and Osteichthyes
ZII.ZOO.7. Students will understand the structure and function of phylum Chordata, classes Chondrichthyes and Osteichthyes, and how they demonstrate the characteristics of living things.
ZII.ZOO.7.1. Students will understand why evolutionary changes lead to the diversity of fish and how they have adapted to the different aquatic environments.
ZII.ZOO.7.6. Research, analyze, and communicate the effects of urbanization and continued expansion by humans on the biodiversity of fish species (e.g., overfishing and invasive species).
ZII.ZOO.10. Students will understand the structure and function of phylum Chordata, class Mammalia, and how they demonstrate the characteristics of living things.
ZII.ZOO.10.1. Understand the characteristics and behaviors that distinguish mammals from other phyla, and use characteristics and behaviors to distinguish the major orders, including primates. Explain how human impact has changed the environments of other organisms.
ZII.ZOO.10.3. Distinguish among monotremes, marsupials, and eutherians, and describe the importance and differences in the placenta in marsupials and eutherians.
ZII.ZOO.10.6. Explain how human impacts have changed the environment of aquatic and terrestrial organisms (e.g., habitat destruction, urbanization, and climate change).
ZII.ZOO.8. Students will understand the structure and function of phylum Chordata, classes Amphibia and Reptilia, and how they demonstrate the characteristics of living things.
ZII.ZOO.8.1. Understand the evolution of tetrapods and the development of the structure and function of body systems and life cycles.
ZII.ZOO.8.2. Describe the constraints that require amphibians to spend part of their lives in water and part on land, including the morphological and physiological changes as they pass from one stage of their life cycle to the next.
ZII.ZOO.1.3. Recognize that the classification of living organisms is based on their evolutionary history and/or similarities in fossils and living organisms.
ZII.ZOO.1.5. Design models to illustrate the interaction between changing environments and genetic variation in natural selection leading to adaptations in populations and differential success of populations.