FY12CE Biology study plan
FY12CE Biology · Give each week a clear focus.
8 weeks · About 6 hours per week
Molecules and Cells
Build a one-page reference sheet mapping the four macromolecule classes to their monomers, bonds, and cellular functions
Explain how the hydrophobic core of the phospholipid bilayer constrains membrane permeability, in writing, without notes
Draw and label a prokaryotic and a eukaryotic cell side by side, marking at least six shared and six distinguishing structures
Solve ten osmosis problems involving solute concentration, water potential, and direction of net water flow
Your checkpoint
A labeled cell-comparison diagram plus a scored set of ten osmosis problems with worked corrections for every miss
Molecules and Cells
Trace the path of a secreted protein from ribosome to plasma membrane, naming each organelle and the modification occurring at each step
Compare aerobic respiration and fermentation by writing the net ATP yield and terminal electron acceptor for each
Interpret a photosynthesis light-response or absorption-spectrum graph and state what it implies about limiting factors
Predict the effect of a single enzyme mutation on reaction rate by reasoning about active-site shape and activation energy
Your checkpoint
A hand-drawn flowchart of protein trafficking and a two-column table contrasting respiration with fermentation, both checked against a textbook for errors
Genetics and Heredity
Predict offspring genotype and phenotype ratios from monohybrid and dihybrid crosses using Punnett squares and the product rule
Distinguish incomplete dominance, codominance, and multiple alleles by constructing one original example of each
Solve at least eight pedigree problems covering autosomal dominant, autosomal recessive, and X-linked recessive inheritance
Explain how crossing over and independent assortment generate genetic variation, using a two-gene diagram
Your checkpoint
A problem set of fifteen genetics problems, at least twelve solved correctly, with written reasoning for each
Genetics and Heredity
Describe the events of each phase of meiosis and identify the phase in which nondisjunction produces aneuploid gametes
Compare DNA replication, transcription, and translation by template, enzyme, and product
Translate a provided DNA sequence into mRNA and then into an amino acid chain using a codon table, and predict the consequence of a single base substitution
Outline the steps of a polymerase chain reaction and state the purpose of each reagent
Your checkpoint
A complete worked example from DNA sequence through protein product, including one silent, one missense, and one nonsense mutation outcome
Evolution and Diversity
State the five conditions required for Hardy-Weinberg equilibrium and calculate allele and genotype frequencies from given population data
Distinguish directional, stabilizing, and disruptive selection by sketching the before-and-after phenotype distribution for each
Compare allopatric and sympatric speciation and give one plausible mechanism for reproductive isolation in each
Construct a cladogram from a provided character matrix and identify which derived traits define each branch
Your checkpoint
A solved Hardy-Weinberg problem set of six populations plus a hand-built cladogram from a ten-species character matrix
Organismal Biology
Relate the structure of each of the four animal tissue types to its function and give one organ example of each
Trace blood flow through the mammalian heart and lungs, naming chambers, valves, and the direction of oxygenation at each step
Compare open and closed circulatory systems and contrast plant vascular tissue with animal transport tissue
Explain how negative feedback regulates blood glucose or body temperature, naming sensor, integrator, and effector
Your checkpoint
An annotated diagram of the mammalian heart and a written negative-feedback loop for one homeostatic variable, each checked for accuracy
Ecology and Environment
Distinguish population, community, and ecosystem levels by describing one measurable variable at each level
Calculate population growth using exponential and logistic models and identify carrying capacity from a growth curve
Trace energy flow and matter cycling through a food web, quantifying the approximate energy lost between trophic levels
Explain how a named human activity alters a nutrient cycle and predict two downstream ecological consequences
Your checkpoint
A food-web diagram with energy-transfer calculations annotated on each trophic level, plus a short written impact analysis
Molecules and Cells & Genetics and Heredity & Evolution and Diversity & Organismal Biology & Ecology and Environment
Complete two full-length timed practice exams under exam conditions and record the score by domain
Rank your three weakest sub-topics from the practice results and re-teach each one in writing from memory
Revisit every missed question from weeks one through seven and confirm you can now solve each without notes
Build a final one-page formula and definition sheet covering genetics ratios, Hardy-Weinberg, and population growth
Your checkpoint
Two scored practice exams with a domain-by-domain error log and a one-page master formula sheet
Milestones
Week 2: Explain membrane transport, enzyme kinetics, and cellular respiration aloud in ten minutes without notes, and score at least 80 percent on a 25-question Domain 1 self-quiz
Week 4: Solve a mixed set of ten genetics problems spanning crosses, pedigrees, and molecular genetics with at least 80 percent accuracy in under 30 minutes
Week 6: Score at least 75 percent on a combined 30-question quiz drawn from Domains 3 and 4, and correctly build a cladogram from an unseen character matrix
Week 8: Average at least 75 percent across two full-length timed practice exams with no single domain below 65 percent