JAMB Syllabus 2026

Detailed subject guidance for focused revision with clear learning goals and frequent question formats.

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Last syllabus verification: 2026-04-12

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Use of English

Core English paper testing reading comprehension under timed pressure, precise grammar application, vocabulary command, and spoken language comprehension.

Learning goals

Read and extract key information from passages within 15 minutes per passage.
Apply complex grammar rules (concord, tense, voice, clause types) correctly in context.
Recognize and use sophisticated vocabulary and common collocations accurately.
Interpret implied meanings, tone, and rhetorical intent from written and spoken English.

Frequent formats

Long comprehension passages (250-350 words) with 5+ follow-up questions per passage.
Lexis and structure: 40+ single-answer vocabulary and grammar items.
Cloze test with 20+ blanks requiring grammatical and semantic awareness.
Sentence representation and oral forms: 10+ items on English speech patterns.
Punctuation, stress, and intonation multiple-choice items.

Study guidance

Commit to timed passage practice 5 days weekly (15-20 passages/week). Maintain a personal error log for repeated grammar mistakes. Drill concord rules, connector usage, and punctuation through active recall. Listen to recorded English broadcasts to train ear for oral forms.

Reading comprehension strategies
Vocabulary and idioms
Grammar: concord, tense, voice, conditionals
Sentence structure and clause types
Punctuation and mechanics
Oral forms and stress patterns
Registers and formal vs. informal usage
Comprehension of implied meaning
Connectors and cohesion
Cloze test techniques

Mathematics

Problem-solving paper requiring algebraic fluency, geometric reasoning, trigonometric application, and data interpretation skills. Heavy focus on formula application and multi-step problem solving.

Learning goals

Model real-world and abstract situations into mathematical equations and inequalities.
Solve equations, systems, and inequalities fluently using multiple methods.
Interpret and construct graphs of functions; identify key features from graphs.
Apply trigonometric identities and solve problems in 2D and 3D contexts.
Extract patterns, calculate probabilities, and interpret statistical summaries.

Frequent formats

Objective items requiring algebraic and arithmetic computation (30 items).
Graph interpretation: identifying functions, intercepts, slopes, asymptotes from visual (8 items).
Word problems requiring equation formulation and multi-step solving (5-7 items).
Trigonometry: solving triangles, verifying identities, applications (5 items).
Data and probability: calculating means, standard deviation, probabilities, permutations (4 items).

Study guidance

Master all formulas and derive key relationships. Daily drill of 20 mixed problems covering all topics. Keep formula sheet for self-testing. Use graph paper for sketch practice. Ensure 100% accuracy on arithmetic before moving to complex problems. Practice exam-paced questions weekly.

Numbers and numeration
Algebraic expressions and equations
Linear, quadratic, and cubic equations
Functions and graphs
Indices, surds, and logarithms
Sequences and series
Trigonometry and trigonometric equations
Coordinate geometry
Circle properties and equations
Mensuration (area, volume, surface area)
Statistics and probability
Variation and proportion
Set theory and logic

Biology

Conceptual paper emphasizing cellular organization, functional systems, ecological relationships, genetic principles, and homeostatic mechanisms. Requires precise terminology and ability to interpret biological data.

Learning goals

Explain biological processes using correct scientific terminology and logical reasoning.
Interpret diagrams, microscope images, and experimental data.
Connect concepts: how cellular function supports organism-level homeostasis.
Apply ecological principles to interpret population dynamics and biodiversity.
Predict inheritance patterns and explain genetic mechanisms.

Frequent formats

Diagram labeling and interpretation: 15-20 items on cell structure, tissues, organ systems.
Process and function matching: 12-15 items on photosynthesis, respiration, excretion, reproduction.
Concept application: 10-12 items relating cellular mechanisms to organism behavior.
Data interpretation: analyzing graphs of population growth, enzyme kinetics, inheritance ratios.
Short fill-in-the-blank: 8-10 items testing terminology recall.

Study guidance

Draw and label all major diagrams 10+ times each until recall is automatic. Create concept maps showing relationships between topics. Practice past exam diagrams. Use active recall daily for terminology. Rehearse explanations aloud to ensure concept clarity.

Cell structure and ultrastructure (prokaryotic and eukaryotic)
Cell division: mitosis, meiosis, control mechanisms
Nutrition and feeding strategies
Photosynthesis and respiration
Transport mechanisms across membranes
Excretion and homeostasis
Nervous and hormonal coordination
Reproduction in plants and animals
Growth and development
Ecology: populations, communities, ecosystems
Energy flow and nutrient cycles
Genetics: inheritance, variation, evolution
Biodiversity and adaptation
Immunity and disease resistance

Chemistry

Quantitative and conceptual paper balancing theoretical foundations, stoichiometric problem-solving, reaction prediction, and practical chemistry interpretation. Calculator required.

Learning goals

Use mole concept confidently in stoichiometric calculations including limiting reactants.
Balance chemical equations and predict reaction products based on periodic trends.
Explain bonding types, predict bonding and intermolecular forces.
Interpret reaction pathways, equilibrium shifts, and rate mechanisms.
Apply organic chemistry nomenclature and predict reaction mechanisms.

Frequent formats

Stoichiometry calculations: 12-15 items requiring mole conversions, empirical formulas, concentration.
Equation balancing and product prediction: 8-10 items.
Concept items on periodicity, bonding, acid-base theories, redox: 12-15 items.
Organic chemistry: nomenclature, isomerism, reaction mechanisms: 10-12 items.
Practical and data-based items: interpreting lab results, graphs: 5-7 items.

Study guidance

Master the mole concept through 50+ calculation problems. Memorize all element properties on periodic table. Daily practice balancing equations and predicting products. Drill organic functional groups and reactions. Keep a notebook for common stoichiometry mistakes.

Atomic structure and quantum numbers
Periodic table and periodicity
Chemical bonding: ionic, covalent, metallic
Intermolecular forces
States of matter and kinetic theory
Chemical kinetics and reaction mechanisms
Chemical equilibrium
Acids, bases, and pH
Salts and hydrolysis
Redox reactions and electrochemistry
Electrolysis
Stoichiometry and calculations
Gas laws
Organic chemistry: alkanes, alkenes, alcohols, carboxylic acids
Polymers and macromolecules

Physics

Conceptual and quantitative paper requiring formula fluency, unit conversions, problem-solving in mechanics, waves, electricity, and optics. Scientific calculator essential.

Learning goals

Apply Newton's laws and energy principles to solve multi-step mechanics problems.
Understand wave properties and solve problems involving sound, light, and electromagnetic radiation.
Analyze circuits using Ohm's law, Kirchhoff's rules, and magnetic field concepts.
Interpret optical phenomena: reflection, refraction, diffraction.
Apply modern physics concepts: photoelectric effect, atomic structure, nuclear reactions.

Frequent formats

Mechanics problems: forces, motion, energy, momentum: 15-20 items.
Waves and periodic motion: 8-10 items on properties, equations, applications.
Electricity and magnetism: 12-15 items on fields, circuits, induction.
Optics: 6-8 items on mirrors, lenses, wave nature of light.
Modern physics: 5-7 items on photoelectric effect, atoms, nuclei.

Study guidance

Memorize all 15-20 core equations and practice unit conversions daily. Solve mechanics problems in 2 formats each (algebraic and free-body diagrams). Weekly full-problem practice papers under timed conditions. Keep common conversion factors reference sheet.

Measurement and significant figures
Vectors and scalars
Kinematics and motion equations
Forces and Newton's laws
Work, energy, and power
Momentum and collisions
Simple harmonic motion
Waves: properties, equation, speed
Sound: Doppler effect, intensity, resonance
Light: nature, speed, reflection, refraction
Optics: mirrors, lenses, diffraction, interference
Electricity: charge, field, force, potential
Circuits: current, voltage, resistance, Kirchhoff's laws
Magnetism: field, force on charges, induction
Electromagnetic waves
Atomic structure and quantum theory
Nuclear physics: radioactivity, mass-energy, reactions
Thermodynamics: heat, temperature, entropy