VCE Biology study plan
VCE Biology · Give each week a clear focus.
8 weeks · About 6 hours per week
Unit 1
Define and distinguish the key characteristics of living things, and classify unfamiliar examples against those criteria
Describe the structure and function of the plasma membrane, including the fluid mosaic model and the roles of phospholipids, proteins, cholesterol and glycoproteins
Compare passive transport (diffusion, facilitated diffusion, osmosis) with active transport and explain the energy requirements of each
Interpret data on the effect of solute concentration on cell mass or volume and identify the direction of net water movement
Your checkpoint
A one-page annotated membrane diagram plus a completed table comparing four transport types on mechanism, direction, energy use and one worked example each
Unit 1
Outline the stages of the cell cycle and describe the events of mitosis and cytokinesis in plant and animal cells
Explain how disruption of the cell cycle, including mutations in regulatory genes, can lead to uncontrolled cell division
Compare binary fission, mitosis and meiosis in terms of purpose, products and genetic variation generated
Explain the roles of meiosis, crossing over, independent assortment and fertilisation in generating genetic diversity
Your checkpoint
A side-by-side comparison chart of mitosis and meiosis with at least eight points of contrast, plus a 200-word explanation of one cancer-related cell cycle failure
Unit 1 & Unit 2
Describe the structure and function of the major organ systems and explain how specialised cell structure relates to function in at least three tissues
Explain the role of the digestive, respiratory and circulatory systems in the transport of nutrients, gases and wastes
Apply the concept of surface area to volume ratio to explain constraints on cell and organism size
Interpret experimental data on enzyme activity, including the effects of temperature, pH and substrate concentration
Your checkpoint
A systems summary sheet linking three organ systems to cellular requirements, accompanied by a solved surface area to volume ratio problem set of five items
Unit 2
Explain the role of the endocrine system in maintaining homeostasis using at least two negative feedback loops
Describe how the nervous and endocrine systems coordinate a response to a change in the internal environment
Analyse stimulus-response models and identify the receptor, control centre and effector in unfamiliar scenarios
Evaluate the effect of a named homeostatic dysfunction on whole-organism function
Your checkpoint
Two fully labelled negative feedback flow diagrams (one neural, one hormonal) plus a 250-word evaluation of one named homeostatic disorder
Unit 2 & Unit 3
Explain the roles of the immune system's first, second and third lines of defence and distinguish innate from adaptive immunity
Describe the structure and function of nucleic acids and explain how the genetic code is transcribed and translated
Outline the steps of protein synthesis and explain the consequence of a single base substitution on the resulting polypeptide
Compare the mechanisms by which pathogens are transmitted and controlled, including the concept of herd immunity
Your checkpoint
A protein synthesis flowchart from gene to functional polypeptide with one worked point-mutation example showing the altered amino acid sequence
Unit 3
Explain the biochemical pathways of cellular respiration, including glycolysis, the Krebs cycle and the electron transport chain, and state the location and yield of each stage
Compare aerobic and anaerobic respiration in terms of ATP yield and products in different organisms
Describe the light-dependent and light-independent reactions of photosynthesis and identify the inputs and outputs of each
Interpret experimental data on limiting factors affecting the rate of photosynthesis
Your checkpoint
A comparative energy pathway poster covering respiration and photosynthesis with ATP yields and a solved limiting-factor graph interpretation
Unit 4
Describe the mechanisms of evolutionary change, including natural selection, gene flow, genetic drift and mutation
Explain how allele frequencies change in a population and apply the Hardy-Weinberg principle to a simple data set
Interpret phylogenetic trees and molecular evidence to infer evolutionary relationships
Distinguish between allopatric and sympatric speciation and identify the isolating mechanism in a given scenario
Your checkpoint
A worked Hardy-Weinberg problem set of four items plus a written analysis of one speciation scenario identifying the isolating mechanism and evidence
Unit 3 & Unit 4
Explain how changes in DNA sequence, including mutations and chromosomal alterations, can produce new phenotypes and drive evolutionary change
Describe the evidence for evolution from fossils, comparative anatomy, embryology and molecular biology
Synthesise content from all four units by solving mixed-format practice questions under timed conditions
Identify and remediate the three weakest content areas revealed by practice results
Your checkpoint
A completed timed practice paper scored against a marking scheme, plus a one-page error log listing each mistake, its domain and the corrected concept
Milestones
Week 2: Score at least 75% on a self-written 20-question quiz covering cell structure, transport, the cell cycle and cell division
Week 4: Explain two negative feedback loops aloud without notes and correctly label receptor, control centre and effector in three unseen scenarios
Week 6: Reproduce the complete respiration and photosynthesis summary from memory, including ATP yields and organelle locations, with no more than two errors
Week 8: Achieve at least 70% on the timed mixed-domain practice paper and confirm every error log entry has a written correction