Bagrut Biology 5 Units study materials
Bagrut Biology 5 Units study resources

Bagrut Biology 5 Units study plan

Bagrut Biology 5 Units · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

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)

Week 2

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

Week 3

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

Week 4

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

Week 5

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

Week 6

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

Week 7

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)

Week 8

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