LC Biology study plan
LC Biology · Give each week a clear focus.
8 weeks · About 6 hours per week
Genetics: inheritance, DNA, genetic engineering and biotechnology & Cellular structure, transport across membranes and cell division
Define and correctly use 40 core genetic terms (gene, allele, locus, genotype, phenotype, homozygous, heterozygous, dominant, recessive, codominance, linkage, sex-linkage) by writing one-sentence definitions from memory and self-checking
Solve monohybrid and dihybrid crosses using Punnett squares, including 3:1 and 9:3:3:1 ratios, and state expected phenotype ratios for given parental genotypes
Describe the structure of DNA and RNA and explain replication, transcription and translation step by step in your own words without notes
Draw and label a generalized animal and plant cell, listing the function of each organelle and one structural difference between the two
Explain diffusion, osmosis, active transport and turgidity, and predict the direction of water movement for three given solute concentrations
Your checkpoint
A hand-written one-page genetics cheat sheet (terms, ratios, DNA-to-protein flow) plus 10 self-set genetics calculation questions solved with worked solutions.
Genetics: inheritance, DNA, genetic engineering and biotechnology & Cellular structure, transport across membranes and cell division
Explain the stages of mitosis and meiosis and contrast them in a table covering chromosome number, crossing over, independent assortment and daughter cells produced
Complete a worked example of a genetic cross involving sex linkage or codominance and interpret the pedigree outcome
Outline the process of genetic engineering (isolation of a gene, vector, ligation, transformation, selection) and give two named applications in medicine or agriculture
Describe one named example of biotechnology (for example fermentation or tissue culture) and state its industrial or medical use
Explain the cause and inheritance pattern of one named human genetic disorder and one named screening or diagnostic technique
Your checkpoint
A timed 45-minute written answer set: one 30-mark genetics long question and one 15-mark cell division question, self-marked against a checklist of required points.
Human and comparative physiology: circulation, gas exchange, excretion, nervous and hormonal coordination & Food, nutrition, digestion and enzymes
Trace the pathway of blood through the heart and both circulations, naming chambers, valves and major vessels in order
Compare artery, vein and capillary structure and relate each structure to its function
Describe gas exchange in the alveoli and list three features that make exchange surfaces efficient
Explain the role of the digestive system in breaking down carbohydrates, proteins and lipids, naming the enzyme and product at each stage
Interpret a graph of enzyme activity against temperature or pH and explain the shape using the terms active site and denaturation
Your checkpoint
A labelled diagram set (heart, alveolus, digestive tract) with a 200-word explanation of each, plus five enzyme graph interpretation answers.
Human and comparative physiology: circulation, gas exchange, excretion, nervous and hormonal coordination & The scientific method and biological terminology; laboratory practical work and reporting
Describe the structure and function of the nephron and explain how filtration, reabsorption and secretion produce urine
Explain homeostasis using one named example (osmoregulation, thermoregulation or blood glucose) including negative feedback and the role of a named hormone
Compare nervous and hormonal coordination in a table covering speed, duration, transmission route and target specificity
Describe a reflex arc and label its components in a diagram
Design a controlled experiment for a given biological question, identifying independent, dependent and controlled variables, a control group and one source of error
Your checkpoint
A full practical report (aim, hypothesis, variables, method, results table, conclusion, evaluation) for a self-designed experiment such as testing the effect of temperature on enzyme activity.
Ecology, ecosystems, nutrient cycles and human impact on the environment & Respiration, photosynthesis and energy transfer
Explain energy flow through an ecosystem using trophic levels, food chains and pyramids of numbers and energy, and state why energy is lost at each level
Describe the carbon and nitrogen cycles, naming the processes and organisms involved at each stage
Define and apply ecological terms (population, community, habitat, niche, ecosystem, biodiversity) to a named Irish or local habitat
Explain two human impacts on an ecosystem and evaluate one named conservation or management measure
Write the balanced equation for photosynthesis and describe the light and dark stages, naming the products of each
Your checkpoint
A one-page ecosystem case study on a named habitat covering food web, nutrient cycling, one human impact and one conservation measure, plus a completed carbon and nitrogen cycle diagram from memory.
Respiration, photosynthesis and energy transfer & Food, nutrition, digestion and enzymes
Compare aerobic and anaerobic respiration, giving the balanced equations, ATP yield comparison and the products in muscle and yeast
Explain how the structure of a leaf is adapted for photosynthesis and gas exchange, linking each feature to its function
Describe how light intensity, carbon dioxide concentration and temperature limit the rate of photosynthesis and interpret a limiting-factor graph
Explain the role of ATP as an energy carrier and trace where it is produced and used in the cell
Design and describe a controlled investigation of photosynthesis or respiration, including how to measure the rate
Your checkpoint
A written 40-mark answer on photosynthesis and respiration (equations, stages, limiting factors, leaf adaptations) completed in 50 minutes without notes.
Reproduction, growth, development and the continuity of life & Plant biology: structure, transport, responses and reproduction & The scientific method and biological terminology; laboratory practical work and reporting
Describe the human male and female reproductive systems and outline gametogenesis, fertilisation and early development
Explain the menstrual cycle and the role of named hormones, including one contraceptive or fertility treatment application
Describe plant transport (xylem and phloem) and relate vessel structure to function
Explain plant responses (tropisms) and one named plant reproductive process such as pollination or seed dispersal
Evaluate a set of experimental data for reliability and accuracy, identifying a control, a replicate and one possible systematic error
Your checkpoint
A comparative summary table of human and plant reproduction plus a 25-mark data-analysis answer interpreting a supplied results table with calculated means and a stated conclusion.
The scientific method and biological terminology; laboratory practical work and reporting & Genetics: inheritance, DNA, genetic engineering and biotechnology & Ecology, ecosystems, nutrient cycles and human impact on the environment & Human and comparative physiology: circulation, gas exchange, excretion, nervous and hormonal coordination
Complete two full timed mock papers under exam conditions and record the score for each domain
List your five weakest sub-topics from the mock results and write a one-page revision sheet for each
Re-derive from memory the key equations (photosynthesis, respiration), ratios and definitions most often lost in marking
Practise exam technique: command words, mark allocation, labelled diagrams and showing units in calculations
Review all eight weeks' deliverables and redo any question you previously answered incorrectly
Your checkpoint
Two completed mock papers with marked scores, a ranked list of five weak areas, and five one-page revision sheets produced from that list.
Milestones
Week 2: Score at least 70% on a self-made 20-question genetics and cell division quiz, including two full genetic crosses solved correctly with stated ratios.
Week 4: Produce a complete practical report that another person could follow and repeat, and correctly identify variables and one source of error in three unseen experimental scenarios.
Week 6: Write the photosynthesis and respiration equations from memory and score at least 65% on a 40-mark timed answer covering energy transfer.
Week 8: Achieve at least 60% overall on each of two full timed mock papers, with no domain below 50%, and have a written plan for the five identified weak areas.