Bagrut Biology 5 Units study plan
Bagrut Biology 5 Units · Give each week a clear focus.
8 weeks · About 7 hours per week
Genetics: inheritance, DNA, gene expression and genetic engineering & Cell Biology: structure, organelles, membranes and transport
Map the central dogma (replication, transcription, translation) and draw each stage from memory with the enzymes, templates, and directionality labeled
Solve monohybrid and dihybrid crosses including sex-linked and codominant traits, showing Punnett squares and probability calculations
Describe membrane structure and compare diffusion, osmosis, facilitated transport, and active transport with one worked example each
Build a labeled organelle-function table linking each organelle to a process it supports (protein synthesis, ATP production, packaging)
Write 10 original recall prompts on DNA structure and cell transport and answer them closed-book
Your checkpoint
A one-page handwritten genetics-and-membranes cheat sheet plus a scored 20-question self-quiz (record score)
Genetics: inheritance, DNA, gene expression and genetic engineering & Biochemistry: biological molecules, enzymes and metabolism
Analyze pedigree charts and determine inheritance modes, justifying each conclusion with evidence from the chart
Explain gene expression regulation and describe one prokaryotic and one eukaryotic control mechanism
Outline genetic engineering steps (restriction enzymes, ligation, transformation, selection) and explain one application such as insulin production
Compare competitive and non-competitive inhibition and predict effects on reaction rate curves
Calculate enzyme rate from tabulated data and explain the effect of temperature, pH, and substrate concentration
Your checkpoint
A completed pedigree-analysis worksheet (5 pedigrees) with written justifications, plus a scored enzyme-graph interpretation task
Human physiology: systems, homeostasis and regulation & Reproduction, development and the immune system
Diagram homeostatic regulation of blood glucose and body temperature, naming sensors, control center, effectors, and feedback type
Trace the path of blood through the heart and relate structure to function for each chamber and valve
Describe nephron function and explain how ADH and aldosterone alter urine concentration
Compare hormonal regulation of the male and female reproductive cycles and identify the roles of the key hormones
Explain the events of fertilization and early embryonic development through implantation
Your checkpoint
A two-panel systems diagram (glucose homeostasis and the menstrual cycle) with a 150-word explanation of each feedback loop
Scientific inquiry, experimental design and data analysis & Cell Biology: structure, organelles, membranes and transport
Identify independent, dependent, and controlled variables in 8 short scenario descriptions and state a testable hypothesis for each
Design a controlled experiment on membrane permeability (e.g., osmosis in plant tissue) including sample size, replicates, and a control group
Interpret a data table and a graph to draw a valid conclusion and identify one source of error and one limitation
Distinguish correlation from causation in two described studies
Review weeks 1-3 errors and re-solve every missed item
Your checkpoint
A full written experimental design for the osmosis investigation (hypothesis, variables, procedure, expected results) graded against a checklist
Evolution and population genetics & Ecology: populations, communities, ecosystems and human impact
Explain natural selection with a step-by-step example and distinguish it from Lamarckian inheritance
Calculate allele and genotype frequencies using Hardy-Weinberg and check whether a population is in equilibrium
Describe the five conditions for Hardy-Weinberg equilibrium and predict how violating each shifts frequencies
Interpret population growth curves (exponential vs logistic) and identify density-dependent and density-independent factors
Analyze a food web and predict the effect of removing one species, including trophic cascade reasoning
Your checkpoint
A scored problem set of 6 Hardy-Weinberg calculations plus a written food-web disruption prediction
Reproduction, development and the immune system & Biochemistry: biological molecules, enzymes and metabolism
Compare innate and acquired immunity, naming the cells and molecules involved in each
Explain the antibody-mediated and cell-mediated response sequences, including memory cell formation
Describe the immune basis of vaccination and one immune malfunction (allergy or autoimmune disease)
Explain the lock-and-key and induced-fit models and relate enzyme structure to function
Trace a metabolic pathway and explain how a missing enzyme produces a described phenotype
Your checkpoint
An immunity flowchart from pathogen entry to memory cell formation, plus a 10-item self-quiz with recorded score
Ecology: populations, communities, ecosystems and human impact & Extended/elective topic units specific to the 5-unit track
Explain the carbon and nitrogen cycles and identify one human activity that disrupts each
Evaluate human impacts (habitat loss, pollution, climate change, invasive species) on biodiversity with a concrete example each
Summarize the elective unit's core concepts in your own outline and list the 5 most exam-relevant processes
Connect elective content to at least two core domains with explicit links
Answer 3 extended-response questions under timed conditions
Your checkpoint
A 1-page elective summary plus 3 timed extended answers (each written in 12 minutes or less)
Scientific inquiry, experimental design and data analysis & Genetics: inheritance, DNA, gene expression and genetic engineering
Complete two full timed mock exams and score them against a marking scheme
Classify every error by domain and by error type (knowledge gap, misreading, calculation, time)
Re-teach the two weakest domains using your own notes and re-test with 15 new items
Practice data-analysis items involving graphs, tables, and experimental critique
Compile a final one-page 'frequently missed facts' sheet and review it twice
Your checkpoint
Mock exam score report with an error-analysis table and a completed personal weak-topic action list
Milestones
Week 2: Score at least 75% on a self-made 20-item quiz covering genetics, membranes, and enzymes; redo any item missed twice
Week 4: Produce a complete experimental design that passes a 6-point checklist (hypothesis, variables, control, replicates, procedure, conclusion logic)
Week 6: Explain the immune response and one homeostatic loop aloud in under 5 minutes each without notes
Week 8: Achieve at least 80% on the second timed mock exam and show a shrinking error count in your two weakest domains