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Download 8th Grade Unit Plan: Genetics
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6th Grade Unit Plan: Genetics Stage One: Desired Results Big Ideas Heredity is the passing of traits from one generation to the next Genetic information is stored on DNA. Condensed DNA is called a chromosome. One segment of DNA coding for a single trait is a gene. Different forms of the same gene are alleles. Offspring of sexual reproduction receive half of their DNA from each of two parents. Offspring of asexual reproduction are identical to their single parent. Dominant alleles are always expressed. Recessive alleles are only expressed if both alleles are present. The probability of a trait being expressed can be predicted using a Punnett Square or Pedigree Chart. Essential Skills Students will be able to… Students will know… Relate genes, alleles, DNA, and chromosomes. Use a punnet square to predict the probability of the genotype/phenotype of offspring. Use a pedigree to track a single track over several generations. Identify and defend a position on the ethics of genetic engineering using multiple resources Heredity is the passing of traits from one generation to the next sexual reproduction requires 2 parents and produces offspring with a mix of genes sexual reproduction requires 1 parent and produces offspring that are identical to the parent organisms can be genetically modified by splicing the genes from another organism Essential Questions 1. If we could manipulate our genes, should we? 2. Are we slaves to our genes? Vocabulary Heredity Trait Gene Allele DNA Chromosome Punnett Square Pedigree Phenotype Genotype Offspring Genetic Engineering Plasmid Eugenics Stage Two: Assessment and Evidence Assessments Daily: Culminating: Mastery of individual objectives will be measured by: Daily Do-Now quizzes to measure retention of the previous lesson’s objective Accuracy of individual work produced in class and as homework (Punnett Squares, Pedigrees, etc.) Summary Questions Exit Slips 1. Written exam with multiple opportunities/formats for testing mastery of each learning objective 2. Performance during eugenics debate- position paper, supporting data, participation in debate Feedback Comments/grades based on homework and class-work rubrics Individual conferences during work time: I try to meet with each student individually at least once per work period (work time in lesson) Peer-editing: students switch work and check their partner’s accuracy. Students use peer editing form to provide specific feedback for their classmate. Informed Instruction Me: Daily assessment of student mastery of objectives will help pace instruction (i.e. spend another day revisiting the learning objective) and change the mode of instruction (i.e. reteach the concept in a different way to incorporate varying learning modalities, etc.) Also, if it is evident that a certain topic is still challenging students, I will provide more opportunities to practice the skill/concept during homework assignments, do-now’s, or in-class activities. Students: Students will track their own mastery of objectives on their personal mastery charts and know which topics they still have to work on. During our individual conferences, we can address these specific challenges and collaborate on an individualized learning plan. Stage Three: Instruction Learning Activities and Approaches Kinesthetic: Make DNA/gene models using string and markers Hands-on labs: drinking contest for tongue curlers, stand-up/sit down game for traits Visual: Digital Presenter/overhead Video clips/internet simulations Auditory: Video/simulations group-discussion/debate Interpersonal: cooperative learning labsidentifying dominant/recessive traits they possess structured debate Mathematical-logical: Punnet Squares and Pedigrees, calculating probabilities Resources Individual Objectives: 1. 2. 3. 4. 5. 6. 7. 8. 9. Artistic: Making posters, process charts Color-coding dominant/recessive traits Digital Presenter, computer Reading Materials- Text and supplementary reading from internet, library, and other periodicals Poster paper, markers DVD- Gattaca Internet connection Hand-outs 10. 11. 12. 13. 14. SWBAT relate cells to factories. SWBAT explain that an offspring’s traits are the result of the contribution of genetic material carried in each cell. SWBAT explain the relationship between genes, DNA, and chromosomes. SWBAT identify alleles as different forms of the same gene. SWBAT differentiate between dominant and recessive alleles. SWBAT predict the outcome of monohybrid crosses using a Punnett Square. SWBAT predict the probability of an allele’s expression using a pedigree chart. SWBAT differentiate between sexual and asexual reproduction. (multiple days) SWBAT relate sexual reproduction to variation within offspring. SWBAT to explain how environmental conditions select for specific traits. SWBAT relate natural selection to evolution. SWBAT to explain the impact of selective breeding on variation. SWBAT model the technique used to make recombinant DNA. SWBAT debate the benefits and drawbacks of genetic engineering. (multiple lessons