FY13CE Biology study plan
FY13CE Biology · Give each week a clear focus.
8 weeks · About 6 hours per week
Molecules and Cells
Draw and label the four major classes of biological macromolecules, naming their monomers, bonds, and two functions each
Explain how the amphipathic structure of phospholipids produces membrane bilayers and selectively permeable barriers
Compare passive transport, facilitated diffusion, and active transport by direction of movement and energy cost
Describe the roles of enzymes in lowering activation energy and predict the effect of a competitive inhibitor on reaction rate
Your checkpoint
A one-page macromolecule and membrane-transport summary sheet, self-quizzed to at least 90% accuracy
Molecules and Cells
Trace the flow of energy through glycolysis, the Krebs cycle, and oxidative phosphorylation, stating the location and net ATP yield of each stage
Contrast aerobic respiration with fermentation in terms of final electron acceptor and ATP output
Outline the light-dependent reactions and the Calvin cycle, identifying inputs and outputs of each
Sequence the stages of mitosis and meiosis and state the chromosome behavior that distinguishes them
Your checkpoint
A hand-drawn diagram of cellular respiration and photosynthesis with all inputs and outputs labeled, explained aloud in under five minutes without notes
Genetics and Heredity
Solve monohybrid and dihybrid crosses using Punnett squares and state expected phenotypic ratios
Apply the product and sum rules to calculate probabilities in multi-trait crosses
Distinguish incomplete dominance, codominance, and multiple alleles with one worked example each
Interpret pedigrees to determine whether a trait is autosomal or sex-linked and dominant or recessive
Your checkpoint
A 20-problem genetics problem set completed with written reasoning, scoring at least 85%
Genetics and Heredity & Scientific Inquiry and Data Analysis
Describe the structure of DNA and the roles of helicase, polymerase, and ligase in replication
Explain transcription and translation, including codon-anticodon pairing and the effect of a point mutation on the protein product
Identify independent and dependent variables, controls, and constants in described experiments
Calculate and interpret a chi-square value to test whether observed ratios fit expected Mendelian ratios
Your checkpoint
A timed 40-question mixed genetics and data-analysis test, reviewed with a written error log for every missed item
Evolution and Diversity of Life
Summarize Darwin's four postulates and give one biological example of natural selection producing measurable change
Define the biological species concept and identify two situations where it fails
Distinguish homologous from analogous structures and allopatric from sympatric speciation
State the Hardy-Weinberg conditions and calculate allele and genotype frequencies from given data
Order the major taxonomic groups and place representative phyla of animals and plants within them
Your checkpoint
A concept map linking natural selection, speciation mechanisms, and evidence for evolution, plus five Hardy-Weinberg calculations checked against the answer key
Organismal Biology and Physiology
Relate the structure of each tissue type to its function and identify where each occurs in the body
Trace blood flow through the mammalian heart and relate vessel structure to pressure and flow
Explain how negative feedback regulates blood glucose and body temperature, naming sensor, integrator, and effector
Compare the nervous and endocrine systems by signal speed, duration, and mode of transmission
Describe gas exchange at alveoli in terms of partial pressure gradients and surface area
Your checkpoint
A systems comparison table covering circulation, respiration, and endocrine regulation, self-tested to at least 90% recall
Ecology and the Environment & Scientific Inquiry and Data Analysis
Distinguish population, community, and ecosystem levels and give a measurable variable studied at each
Construct and interpret a food web, predicting the effect of removing a keystone species
Explain the carbon and nitrogen cycles, naming the organisms responsible for key transformations
Read a graph of population growth and identify exponential and logistic phases with carrying capacity
Evaluate a described sampling design for bias, sample size, and replication
Your checkpoint
A written analysis of one ecosystem case study, including a food web, a population-growth graph interpretation, and a critique of the study design
Molecules and Cells & Genetics and Heredity & Evolution and Diversity of Life & Organismal Biology and Physiology & Ecology and the Environment & Scientific Inquiry and Data Analysis
Rank the six domains by your recorded practice-test accuracy and allocate review time accordingly
Re-derive the three weakest concepts from memory without notes and correct errors immediately
Complete two full-length timed practice tests under exam conditions
Review every missed item and classify each error as content gap, misreading, or time pressure
Your checkpoint
A final error-analysis report with a one-page formula-and-fact sheet covering all six domains and a target score improvement over your week-4 baseline
Milestones
Week 2: Explain cellular respiration and photosynthesis end to end without notes and score at least 80% on a 30-question molecules-and-cells quiz
Week 4: Score at least 70% on the timed mixed genetics and data-analysis test and record a baseline accuracy figure per domain
Week 6: Recall at least 90% of the systems comparison table and correctly answer eight of ten physiology questions on feedback and circulation
Week 8: Score at least 75% on each full-length practice test and show measurable improvement over the week-4 baseline