JAMB Physics Syllabus 2027: Topics, Areas of Concentration & PDF

Are you preparing for the 2027 Joint Admissions and Matriculation Board (JAMB) UTME and looking for the complete JAMB Physics syllabus 2027? This guide explains the major topics, learning objectives, and examination structure outlined in the Physics syllabus to help you organise your preparation.

Physics is an important subject for candidates seeking admission into courses such as Engineering, Physics, Computer Engineering, Electrical and Electronics Engineering, Mechanical Engineering, and other science and technology-related programmes. It helps students understand how matter, energy, motion, forces, electricity, heat, light, and other natural phenomena work.

As a 2027 UTME candidate, understanding the Physics syllabus can help you study more effectively. Instead of reading topics randomly, you can use the syllabus to identify the concepts you need to learn, practise calculations, improve your problem-solving skills, and prepare for questions that test your understanding of Physics.

The syllabus covers several areas, including mechanics, energy, heat, waves, fields, electricity, atomic physics, and nuclear physics. It also highlights the importance of practical activities, accurate measurements, interpreting scientific information, and applying Physics principles to everyday situations.

In this guide, Zamgist.net explains the major areas covered by the uploaded Physics syllabus, the objectives candidates should work towards, and the examination structure described in the document. We also provide a topic-by-topic breakdown to make revision easier.

Table of Contents

Aims and Objectives of JAMB Physics Syllabus 2027

The Physics syllabus is designed to help candidates develop a sound understanding of scientific principles and learn how to apply them to practical problems. It also encourages students to develop the skills and attitudes needed for further scientific study.

According to the uploaded syllabus, candidates should work towards the following objectives:

1. Understanding Basic Physics Principles and Their Applications

Candidates are expected to understand the fundamental principles of Physics and how they apply to different situations. These include concepts relating to matter, motion, forces, energy, heat, waves, electricity, magnetism, and atomic physics.

Understanding these principles helps candidates explain physical events, interpret scientific information, and solve problems involving familiar and unfamiliar situations.

2. Developing Scientific Skills and Attitudes

Physics requires more than memorising definitions and formulas. Candidates should develop scientific skills that help them observe phenomena, measure quantities, analyse results, and reach reasonable conclusions.

They should also learn to approach scientific problems logically, examine evidence carefully, and recognise the importance of accuracy and precision when carrying out measurements or calculations.

3. Understanding the Usefulness and Limitations of Scientific Methods

Candidates should understand how scientific methods are used to investigate natural phenomena and solve problems. They should be able to appreciate the value of observation, experimentation, measurement, and evidence when explaining physical events.

They should also recognise that scientific methods have limitations and that conclusions must be based on appropriate evidence and careful interpretation.

4. Developing Practical Skills and Safe Working Habits

The syllabus emphasises the development of skills that encourage effective and safe scientific practice.

Candidates should understand the importance of following experimental instructions, handling apparatus correctly, recording observations accurately, and taking appropriate precautions during experiments.

These skills are useful when studying topics involving measurements, motion, heat, electricity, optics, and other experimental areas of Physics.

5. Promoting Accuracy, Precision, and Scientific Reasoning

Candidates are expected to develop scientific attitudes such as accuracy, precision, objectivity, integrity, initiative, and inventiveness.

These qualities help students approach calculations carefully, evaluate experimental results, identify possible errors, and develop logical explanations for scientific observations.

JAMB Physics Examination Format

The uploaded Physics syllabus describes an examination structure consisting of three papers: Paper 1, Paper 2, and Paper 3. According to the document, candidates are required to take all three papers, with Papers 1 and 2 taken together at one sitting.

The structure described in the document is outlined below.

Paper 1: Multiple-Choice Questions

Paper 1 is described as a multiple-choice examination containing 50 questions. The paper is allocated 50 marks and a duration of 1 hour and 15 minutes.

Candidates preparing for multiple-choice Physics questions should practise identifying the correct principles, applying formulas, interpreting diagrams, and solving numerical problems accurately.

Paper 2: Short-Structured and Essay Questions

According to the uploaded document, Paper 2 is divided into Sections A and B. The paper carries 60 marks and has a duration of 1 hour and 30 minutes.

Section A: This section contains seven short-structured questions. Candidates are required to answer any five questions, with the section carrying a total of 15 marks.

Section B: This section contains five essay questions. Candidates are required to answer any three questions, with the section carrying a total of 45 marks.

Preparation for structured and essay questions requires candidates to understand the underlying concepts, show their calculations clearly, use the correct units, and explain relevant scientific principles where necessary.

Paper 3: Practical or Alternative-to-Practical Examination

The uploaded syllabus describes Paper 3 as a practical examination for school candidates or an alternative-to-practical paper for private candidates.

The paper contains three questions, of which candidates are required to answer any two. The document allocates 2 hours and 45 minutes and a total of 50 marks to this paper.

The syllabus emphasises practical activities, accurate measurements, observation, experimental procedures, and the interpretation of experimental results.

Candidates should therefore pay attention to the practical aspects of Physics, including the correct use of measuring instruments, recording results, interpreting data, and explaining precautions taken during experiments.

Full JAMB Physics Syllabus 2027

The JAMB Physics syllabus covers different areas of science, including matter, motion, forces, energy, heat, waves, electricity, magnetism, and nuclear physics. Each area contains specific topics that candidates should understand before sitting for the UTME.

In this section, we explain the first two parts of the Physics syllabus: Interaction of Matter, Space and Time, and Energy: Mechanical and Heat. Candidates should study the topics alongside their relevant subtopics and practise numerical problems where necessary.

PART I: Interaction of Matter, Space and Time

This part of the syllabus introduces candidates to the properties of matter, physical quantities, measurement, motion, forces, fluids, and the principles governing the movement and interaction of objects.

1. Concepts of Matter

Matter refers to anything that has mass and occupies space. Candidates should understand the basic structure of matter and the differences between solids, liquids, and gases.

The syllabus requires candidates to study the particle nature of matter and understand how the arrangement and movement of particles explain the properties of different states of matter.

Important areas to study include:

The basic structure and particle nature of matter.
The three physical states of matter: solid, liquid, and gas.
Brownian motion as evidence of the continuous movement of particles.
The kinetic theory of matter and its applications.
Gas pressure and the behaviour of particles in a gas.
Evaporation and boiling.
Cohesion, adhesion, and capillarity.
Differences between crystalline and amorphous substances.
The arrangement of particles in crystalline structures, including face-centred and body-centred arrangements.

Candidates should be able to explain how the behaviour and arrangement of particles account for the physical properties of matter.

2. Fundamental and Derived Quantities and Units

Physical quantities are measurable properties that can be expressed using numbers and units. Candidates must understand the difference between fundamental quantities and derived quantities.

Fundamental Quantities and Units

Fundamental quantities are basic physical quantities that do not depend on other physical quantities for their definition.

The syllabus identifies the following quantities and their SI units:

Length — metre (m).
Mass — kilogram (kg).
Time — second (s).
Electric current — ampere (A).
Thermodynamic temperature — kelvin (K).
Amount of substance — mole (mol).
Luminous intensity — candela (cd).

Candidates should know the symbols and units of these quantities and be able to use them correctly when solving Physics problems.

Derived Quantities and Units

Derived quantities are obtained by combining fundamental quantities mathematically.

Examples listed in the syllabus include:

Volume — cubic metre (m³).
Density — kilogram per cubic metre (kg/m³).
Speed — metre per second (m/s).

Candidates should understand how derived quantities are calculated and how their units are expressed in SI units.

3. Position, Distance and Displacement

Position describes the location of an object relative to a chosen reference point. Distance measures the total length of the path travelled, while displacement describes the change in an object’s position in a particular direction.

Candidates should study the following areas:

Position and the location of objects using rectangular coordinates.
The use of the X, Y, and Z axes to describe positions in space.
Measurement of distance using instruments such as a string, metre rule, vernier calipers, and micrometer screw gauge.
The concept of direction and the use of bearings.
Using a compass and protractor to determine directions.
Differences between distance and displacement.
Representing positions and directions graphically.
The metre (m) as the SI unit of distance.
Accuracy when measuring lengths and distances.

Candidates should be able to distinguish between distance and displacement and select appropriate measuring instruments for different situations.

4. Mass and Weight

Mass and weight are related concepts, but they have different meanings in Physics. Mass measures the amount of matter in an object, whereas weight is the gravitational force acting on that object.

The syllabus requires candidates to understand:

The meaning of mass and weight.
The distinction between mass and weight.
Measuring mass with lever balances, beam balances, chemical balances, and electronic or digital balances.
Measuring weight using a spring balance.
The kilogram (kg) as the SI unit of mass.
The newton (N) as the SI unit of weight.

Candidates should understand that mass is measured in kilograms, while weight is a force measured in newtons. They should also be able to explain how the two quantities differ.

5. Time and Its Measurement

Time measures the interval between physical events. It is an important quantity in studying motion, periodic activities, and changes that occur over a period.

Important areas include:

The meaning of time as an interval between physical events.
Methods of measuring time.
The use of clocks and stopwatches.
Sand clocks, pendulums, ticker-timers, and heartbeat measurements as examples of time-measuring methods.
The second (s) as the SI unit of time.

Candidates should understand how time is measured and how time measurements are used when investigating motion and other physical processes.

6. Fluids at Rest

Fluids include liquids and gases. This section focuses on the behaviour of fluids when they are not flowing and the effects of pressure, density, and forces acting within them.

Volume, Density and Relative Density

Candidates should understand the meaning of volume, density, and relative density and how these quantities are determined experimentally for solids and liquids.

Important areas include:

Volume and methods of measuring it.
Density and its relationship with mass and volume.
Relative density and its determination.
Experimental measurement of density and relative density for solids and liquids.

Pressure in Fluids

Candidates should understand pressure in liquids and gases, including the factors that influence pressure at different depths.

The syllabus includes:

The meaning and definition of pressure.
Pascal’s principle and its applications in hydraulic presses and car brakes.
Pressure variation with depth below a liquid surface.
Atmospheric pressure.
Simple barometers and manometers.
The working principles of siphons, syringes, and pumps.
Determining the relative density of liquids using a U-tube and Hare’s apparatus.

Candidates should be able to explain the practical uses of fluid pressure and understand the principles behind the listed instruments.

Equilibrium of Bodies in Fluids

This topic deals with the forces acting on objects that are partially or completely immersed in fluids.

Candidates should study:

The forces acting on a body immersed in a fluid.
Archimedes’ principle.
Applications of Archimedes’ principle in determining relative density.
The law of flotation.
The conditions under which an object floats in a fluid.

Candidates should understand why some objects float while others sink and how the buoyant force acting on an immersed body affects its behaviour.

7. Motion

Motion occurs when an object’s position changes with time relative to a reference point. Candidates should understand the quantities used to describe motion and how they are related.

The syllabus includes the following areas:

Types of motion and their characteristics.
Distance and displacement.
Speed and velocity.
Acceleration and its measurement.
Motion along a straight line.
Graphical representation of motion.
Interpretation of motion graphs.

Candidates should be able to distinguish between speed and velocity, calculate acceleration, and interpret graphs describing the motion of objects.

8. Speed and Velocity

Speed describes the distance travelled per unit time, while velocity describes displacement per unit time in a specified direction.

Candidates should understand the difference between the two quantities and how they are calculated.

Important areas include:

Average speed and average velocity.
Instantaneous speed and velocity where applicable.
Units of speed and velocity.
Calculations involving distance, displacement, and time.
Interpreting distance-time and displacement-time graphs.

Candidates should practise numerical questions and pay attention to the units used in their answers.

9. Rectilinear Acceleration

Rectilinear motion refers to motion along a straight line. Acceleration describes how velocity changes with time.

Candidates should study:

The meaning of acceleration and deceleration.
Uniform and non-uniform acceleration.
Acceleration as the rate of change of velocity.
Motion graphs and the information they provide.
Calculations involving velocity, acceleration, and time.
Equations describing uniformly accelerated motion.

Candidates should understand how acceleration affects the movement of an object and how to use the appropriate equations when solving problems.

10. Scalars and Vectors

Scalars and vectors are two categories of physical quantities.

A scalar quantity has magnitude only, while a vector quantity has both magnitude and direction.

Candidates should understand:

The meaning of scalar and vector quantities.
Examples of scalar quantities, such as mass, time, distance, and speed.
Examples of vector quantities, such as displacement, velocity, acceleration, and force.
Representation of vectors using arrows.
Vector addition and subtraction.
Resolution of vectors into components where applicable.

Candidates should practise identifying scalars and vectors and solving simple problems involving the addition and resolution of vectors.

11. Equilibrium of Forces

An object is in mechanical equilibrium when the resultant force acting on it is zero. In such a situation, the object remains at rest or continues moving with constant velocity if no other force changes the condition.

Candidates should study:

The meaning of equilibrium.
Resultant forces.
Conditions for equilibrium under the action of forces.
Resolution of forces into components.
Simple applications of equilibrium principles.

Candidates should be able to identify the forces acting on an object and determine whether those forces balance one another.

12. Simple Harmonic Motion (SHM)

Simple harmonic motion is a type of periodic motion in which the restoring effect is directed towards an equilibrium position and is proportional to the displacement within the relevant limits.

The syllabus includes:

The meaning and characteristics of simple harmonic motion.
Linear and angular speed in simple harmonic motion.
Linear and angular acceleration.
Period, frequency, and amplitude.
Energy in simple harmonic motion.
Forced vibrations and resonance.
Experimental determination of gravitational acceleration using a simple pendulum and a helical spring.
Simple calculations involving simple harmonic motion.

Candidates should understand how periodic motion is described and be able to solve basic problems involving its important quantities.

13. Newton’s Laws of Motion

Newton’s laws explain the relationship between forces and the motion of objects. Candidates should understand all three laws and their practical applications.

Newton’s First Law

Newton’s first law describes the tendency of an object to remain at rest or continue moving uniformly in a straight line unless acted upon by a resultant external force.

Important areas include:

The meaning of inertia.
Inertia of rest and inertia of motion.
The relationship between force and changes in motion.

Newton’s Second Law

Newton’s second law relates the resultant force acting on an object to the rate of change of its momentum.

Candidates should study:

Force and acceleration.
Linear momentum.
Impulse.
Conservation of momentum.
Collisions between bodies moving along a straight line.
Applications involving gun recoil, jet propulsion, and rocket propulsion.
Using timing devices, including ticker-timers, to investigate acceleration.

Candidates should practise calculations involving force, mass, acceleration, momentum, and impulse.

Newton’s Third Law

Newton’s third law states that when one body exerts a force on another body, the second body exerts an equal and opposite force on the first.

Candidates should understand action and reaction forces and recognise that these forces act on different bodies.

PART II: Energy — Mechanical and Heat

Energy is the ability to do work. It is involved in nearly every physical process, from the movement of objects to the transfer of heat and the operation of machines.

This part of the syllabus covers different forms of energy, work, power, mechanical machines, temperature, thermal expansion, heat transfer, gas laws, heat capacity, and changes of state.

14. Energy

Energy exists in different forms and can be transferred or converted from one form to another. Candidates should understand the major forms of energy, their sources, and the principle of conservation of energy.

Forms of Energy

The syllabus identifies several forms of energy, including:

Mechanical energy, including potential and kinetic energy.
Heat energy.
Chemical energy.
Electrical energy.
Light energy.
Sound energy.
Nuclear energy.

Candidates should be able to identify the forms of energy involved in familiar physical processes and explain how energy changes from one form to another.

World Energy Resources

Candidates should understand the difference between renewable and non-renewable energy sources.

Examples of renewable energy sources include:

Solar energy.
Wind energy.
Tidal energy.
Hydroelectric energy.
Energy from ocean waves.

Examples of non-renewable energy sources listed in the syllabus include petroleum, coal, and nuclear energy. Biomass is also mentioned in the document’s examples of energy resources.

Candidates should understand the basic characteristics of these resources and distinguish between sources that are naturally replenished and those that are limited or depend on finite fuel supplies.

Conservation of Energy

The principle of conservation of energy states that energy cannot be created or destroyed, although it can be converted from one form to another.

Candidates should understand how this principle explains energy transformations in physical systems.

Examples include the conversion of potential energy into kinetic energy as an object falls and the conversion of electrical energy into heat or light in electrical devices.

15. Work, Energy and Power

Work, energy, and power are closely related concepts in Physics. Candidates should understand their meanings, units, mathematical relationships, and applications.

Concept of Work

In Physics, work is done when a force causes displacement in the direction of the force or has a component in that direction.

Candidates should study:

The meaning of work as a measure of energy transfer.
The relationship between force, displacement, and work.
The joule (J) as the SI unit of work.
Work done when lifting an object.
Work done by a falling body under gravity.

Candidates should be able to calculate work done in simple situations and identify cases in which a force does no work because there is no displacement in the direction of that force.

Concept of Energy

Energy is the capacity to do work. Candidates should understand the different forms of energy and how energy is stored, transferred, and converted.

The joule (J) is the SI unit of energy. Candidates should also recognise the kilowatt-hour (kWh) as a unit used to measure electrical energy consumption.

Potential and Kinetic Energy

Potential energy is energy associated with an object’s position or configuration, while kinetic energy is the energy an object possesses because of its motion.

Candidates should study:

Gravitational potential energy.
Kinetic energy.
Derivation and application of the relevant energy expressions.
Identifying the type of energy possessed by an object under given conditions.
Conservation of mechanical energy.
Verification of the principle of conservation of mechanical energy.

Candidates should practise numerical problems involving moving objects and objects raised above a reference level.

Concept of Power

Power is the rate at which work is done or energy is transferred.

Candidates should understand:

The relationship between work, energy, and time.
The watt (W) as the SI unit of power.
Calculations involving power.
Applications of power in machines and electrical devices.

Mechanical Machines

Machines make work easier by changing the magnitude or direction of an applied force or by changing the distance over which the force acts.

The syllabus includes the following simple machines:

Levers.
Pulleys.
Inclined planes.
Wedges.
Screws.
Wheel and axle systems.
Gears.

Candidates should understand the following concepts:

Force ratio (F.R.).
Mechanical advantage (M.A.).
Velocity ratio (V.R.).
Efficiency of machines.
Effects of friction on machine performance.
Methods of reducing friction in machines.
Identifying the simple machines that form part of a more complex machine, such as a bicycle.

Candidates should practise calculations involving mechanical advantage, velocity ratio, and efficiency and understand how friction affects the useful output of a machine.

16. Heat Energy

Heat energy is transferred between bodies because of a temperature difference. This section covers temperature measurement, the effects of heat, thermal expansion, heat transfer, gas laws, specific heat capacity, and latent heat.

Temperature and Its Measurement

Temperature indicates how hot or cold a body is. Candidates should understand how temperature is measured and how thermometers work.

The syllabus includes:

The concept of temperature.
The construction and graduation of a simple thermometer.
Properties of thermometric liquids.
Constant-volume gas thermometers.
Resistance thermometers.
Thermocouples.
Liquid-in-glass thermometers.
Maximum and minimum thermometers.
Clinical thermometers.
Pyrometers.
Celsius and absolute temperature scales.
The kelvin (K) and degree Celsius (°C) as temperature units.

Candidates should understand the basic principles of temperature measurement and be familiar with the different types of thermometers identified in the syllabus.

Effects of Heat on Matter

Heating can cause several changes in the physical properties and behaviour of matter.

Candidates should study the following effects:

Increase in temperature.
Change of state.
Thermal expansion.
Change in electrical resistance.
Change in colour.
Thermionic emission.
Changes in chemical properties.

Candidates should understand how the kinetic theory of matter explains the effects of heating and how these effects appear in everyday situations.

Thermal Expansion

Thermal expansion occurs when the dimensions of a material change as its temperature changes.

The syllabus includes:

Linear expansion.
Area expansion.
Volume expansion.
Linear, area, and volume expansivities.
Real and apparent expansion of liquids.
Anomalous expansion of water.
Practical applications and consequences of thermal expansion.

Candidates should also understand the effects of thermal expansion in structures and equipment, including:

Expansion joints in buildings and bridges.
Bimetallic strips and thermostats.
Sagging of overhead cables.
Buckling of railway lines.
Changes in the volume of liquids as their temperatures change.

Candidates should be able to explain why allowances are made for expansion in engineering structures and practise calculations involving thermal expansion where required.

Heat Transfer

Heat can be transferred from one region to another through conduction, convection, and radiation.

Candidates should study:

Conduction and the conditions that favour it.
Convection in liquids and gases.
Radiation and the transfer of heat without a material medium.
Experimental demonstrations of heat transfer.
Land and sea breezes.
Ventilation.
Cooling devices.
The vacuum flask and how it reduces heat transfer.

Candidates should understand the differences between the three methods of heat transfer and identify examples of each in everyday life.

The Gas Laws

Gas laws describe relationships between pressure, volume, and temperature under specified conditions.

The syllabus includes:

Boyle’s law.
Charles’ law.
The pressure law.
The general gas law.
Experimental verification of gas laws.
Explanations of gas behaviour using the kinetic theory of matter.
Simple calculations involving gas laws.
The operation of vehicle safety air bags as an application mentioned in the syllabus.

Candidates should understand the conditions under which each gas law applies and practise solving problems involving changes in pressure, volume, and temperature.

Measurement of Heat Energy

This topic examines the measurement of heat energy and the capacity of substances to absorb heat.

Candidates should study:

The concept of heat capacity.
Specific heat capacity.
The method of mixtures.
The electrical method for determining the specific heat capacity of solids and liquids.
The relationship between the specific heat capacity of water and land and the formation of land and sea breezes.
The joule per kilogram per kelvin (J kg⁻¹ K⁻¹) as the unit of specific heat capacity.

Candidates should understand how the specific heat capacity of a substance affects the temperature change produced by a given quantity of heat.

Latent Heat

Latent heat is the energy absorbed or released when a substance changes state without a change in temperature during the phase change.

Candidates should study:

The meaning of latent heat.
Different types of latent heat.
Melting points and boiling points.
Determination of the melting point of a solid.
Determination of the boiling point of a liquid.
Effects of impurities and pressure on melting and boiling points.
Specific latent heat of fusion.
Specific latent heat of vaporisation.
Experimental determination of latent heat using the method of mixtures and the electrical method.
Applications of latent heat in refrigerators and air conditioners.
The joule per kilogram (J kg⁻¹) as the unit of specific latent heat.

Candidates should understand the difference between specific heat capacity and specific latent heat and practise calculations involving changes of state.

Part III: Waves

Waves are an important part of Physics. This section covers how waves are produced and transmitted, their types and properties, light, electromagnetic radiation, and sound. Candidates should understand the main concepts, relevant formulas, and practical applications included in the syllabus.

17. Production and Propagation of Waves

Study how waves are generated and how they transfer energy from one point to another. Mechanical waves can be demonstrated using ropes, springs, or a slinky, while a ripple tank can be used to investigate water waves.

Topics to study include:

Production and propagation of mechanical waves.
Transfer of energy through waves.
Wave speed, frequency, and wavelength.
Waveforms and their graphical representation.
Amplitude, wavelength, frequency, and period.
Sound and light as wave phenomena.
The hertz (Hz) as the unit of frequency.

Understand the relationship between wave speed, frequency, and wavelength:

v = fλ

Where:

v = wave speed
f = frequency
λ = wavelength

The period of a wave is related to its frequency by:

T = 1/f

Practise simple calculations involving these relationships.

18. Types of Waves

Understand the differences between transverse and longitudinal waves, including examples of each type.

Transverse waves: Waves in which the oscillations are perpendicular to the direction of propagation.
Longitudinal waves: Waves in which the oscillations are parallel to the direction of propagation.
Mathematical representation of waves: Study the wave equation provided in the syllabus and understand the meaning of its symbols.

The syllabus includes the mathematical representation:

y = A sin (ωt ± 2πx/λ)

Be familiar with the quantities represented by the symbols. According to the supplied syllabus, questions on phase difference will not be set under this topic.

19. Properties of Waves

Study the main properties of waves and how they can be demonstrated using a ripple tank. The syllabus covers:

Reflection of waves.
Refraction of waves.
Diffraction of waves.
Interference of waves.
Superposition of progressive waves.
Formation of standing or stationary waves.

Understand the meaning of each property and how waves behave when they encounter boundaries, pass through openings, or overlap with other waves.

20. Light Waves

This topic covers the behaviour of light, image formation, mirrors, refraction, lenses, optical instruments, and the dispersion of white light.

(a) Sources of Light

Natural and artificial sources of light.
Luminous and non-luminous bodies.

(b) Rectilinear Propagation of Light

Travel of light in straight lines.
Formation of shadows.
Solar and lunar eclipses.
The pinhole camera.
Simple numerical problems related to the topic.

(c) Reflection of Light at Plane Surfaces

Regular and irregular reflection.
Laws of reflection and their experimental verification.
Image formation in plane mirrors.
Inclined plane mirrors.
Rotation of mirrors.
Applications in periscopes, sextants, and kaleidoscopes.

(d) Reflection at Curved Surfaces

Study reflection in concave and convex mirrors, including image formation and the characteristics of the images produced.

Laws of reflection.
Image formation by concave and convex mirrors.
Characteristics of images.
Mirror formula and magnification.
Experimental determination of the focal length of a concave mirror.
Applications in searchlights, parabolic mirrors, driving mirrors, and car headlamps.

The syllabus includes the mirror formula:

1/f = 1/u + 1/v

It also includes magnification:

m = v/u

Practise simple numerical questions using the formulas and the sign conventions taught in your Physics course. The supplied syllabus states that derivation of the formulas is not required.

(e) Refraction at Plane Surfaces

Study the refraction of light through a rectangular glass block and a triangular prism.

Laws of refraction.
Image formation and apparent depth.
Critical angle and total internal reflection.
Lateral displacement.
Angle of deviation.
Minimum deviation through a triangular prism.

Understand how the refractive index is related to the angle of the prism and the angle of minimum deviation, as covered in the syllabus.

(f) Refraction at Curved Surfaces

Study converging and diverging lenses, including image formation and the use of lens formulas.

Converging and diverging lenses.
Formation and characteristics of images.
Lens formula and magnification.
Experimental determination of the focal length of a converging lens.
Power of a lens and its unit, the dioptre (D).
Applications involving prisms, binoculars, optical fibres, and mirages.

The syllabus includes the lens formula:

1/f = 1/u + 1/v

It also includes magnification:

m = v/u

Practise simple numerical problems involving lenses. The supplied syllabus does not require derivation of these formulas.

(g) Applications of Lenses in Optical Instruments

Understand how lenses are used in optical instruments and study the structure and functions of the instruments listed below.

Simple camera.
Human eye.
Film projector.
Simple and compound microscopes.
Terrestrial and astronomical telescopes.
Angular magnification.
Prism binoculars.
Defects of the human eye and their correction.

The syllabus also expects candidates to compare the structure and function of the camera with those of the human eye.

(h) Dispersion of White Light by a Triangular Glass Prism

Production of a spectrum from white light.
Recombination of the colours that make up the spectrum.
Colours of objects.
Mixing of coloured lights.

21. Electromagnetic Waves

Study the electromagnetic spectrum and the uses of its different types of radiation.

Radio waves.
Infrared radiation.
Visible light.
Ultraviolet radiation.
X-rays.
Gamma rays.

Be able to identify the different types of electromagnetic radiation and describe their basic uses, as required by the syllabus.

22. Sound Waves

This topic covers the production and transmission of sound, the speed of sound in different materials, echoes, reverberation, musical sound, vibrating strings, resonance, and vibrations of air in pipes.

(a) Sources of Sound

Understand how vibrating objects produce sound and identify common sources of sound.

(b) Transmission of Sound Waves

Study how sound travels through a material medium. The syllabus requires an experiment demonstrating that sound needs a material medium for transmission.

(c) Speed of Sound in Solids, Liquids, and Air

Comparison of the speed of sound in solids, liquids, and air.
Factors affecting the speed of sound in air, including temperature and pressure.

(d) Echoes and Reverberation

Meaning of an echo.
Meaning of reverberation.
Use of echoes in mineral exploration.
Use of echoes to determine ocean depth.
Thunder and multiple reflections of sound in large rooms as examples of reverberation.

(e) Noise and Music

Understand the difference between noise and musical sound and study the characteristics used to describe sound.

(f) Characteristics of Sound

Pitch.
Loudness.
Quality or timbre.

(g) Vibration in Strings

Study the vibration of stretched strings and how frequency depends on the properties of the string.

Effect of string length on frequency.
Effect of tension on frequency.
Effect of mass per unit length on frequency.
Use of the sonometer to investigate vibrating strings.
Applications in the guitar, piano, harp, and violin.

The syllabus includes numerical problems involving the relationship between the frequency, length, tension, and linear density of a vibrating string.

(h) Forced Vibration

Understand forced vibration and how it can be demonstrated using a sonometer and resonance boxes.

(i) Resonance, Harmonics, and Overtones

Meaning of resonance.
Harmonics and overtones.
Relationship between overtones and the quality of a musical note.
Applications in percussion instruments such as drums, bells, cymbals, and xylophones.

(j) Vibration of Air in Open and Closed Pipes

Vibration of air columns in open and closed pipes.
Use of a resonance tube to measure the speed of sound in air or the frequency of a tuning fork.
Relationship between wave speed, frequency, and wavelength.
End correction.
Applications in wind instruments such as the organ, flute, trumpet, horn, clarinet, and saxophone.

Remember the wave relationship:

v = fλ

Part IV: Fields

This section covers gravitational, electric, and magnetic fields. Candidates should understand the properties of fields, relevant laws, basic calculations, and applications listed in the syllabus.

23. Description and Properties of Fields

Study the concept of a field and the three types identified in the syllabus.

Gravitational fields.
Electric fields.
Magnetic fields.

Understand the properties of force fields. The syllabus mentions the use of a compass needle and iron filings to demonstrate magnetic field lines.

24. Gravitational Field

(a) Acceleration Due to Gravity

Study acceleration due to gravity, represented by g, and gravitational field intensity.

The syllabus includes the relationship:

g = F/m

Where F is the gravitational force acting on a mass and m is the mass.

(b) Gravitational Force Between Two Masses

Newton’s law of universal gravitation.
Gravitational attraction between two masses.
Gravitational force involving objects such as protons, electrons, and planets.
The universal gravitational constant, G.
The relationship between G and g.

(c) Gravitational Potential and Escape Velocity

Study gravitational potential and escape velocity. The syllabus includes calculations involving the escape velocity of a rocket leaving the Earth’s gravitational field.

25. Electric Field

(a) Electrostatics

Electrostatics deals with electric charges at rest. Study the following areas:

Production of electric charges: Charging by friction, induction, and contact.
Distribution of charges: Distribution of charge on differently shaped bodies, using a simple electroscope to detect and compare charges.
Storage of charges: The syllabus mentions applications involving lightning conductors.
Electric lines of force: Their properties and the field patterns associated with different charge arrangements.
Electric force between point charges: Coulomb’s law and the permittivity of a medium.
Electric field intensity and potential: Meaning and calculations for simple systems.
Potential gradient: Its relationship to the electric field.
Capacitance: Definition, arrangements, applications, and factors affecting the capacitance of a parallel-plate capacitor.
Unit of capacitance: The farad (F).
Capacitors in series and parallel: Equivalent capacitance and energy stored in a charged capacitor.
Applications of capacitors: Examples include their use in radios and televisions.

The supplied syllabus states that derivation of capacitance formulas is not required.

(b) Current Electricity

Study how electric current is produced, measured, and used in electrical circuits.

Electric cells: Primary and secondary cells, including simple cells, Daniell cells, Leclanché cells, lead-acid accumulators, and alkaline-cadmium cells.
Electromotive force (e.m.f.): Meaning and the volt (V) as its unit.
Potential difference and current: Ohm’s law, resistance, and experimental verification of Ohm’s law.
Units: Volt (V) for potential difference, ampere (A) for current, and ohm (Ω) for resistance.
Electric circuits: Series and parallel arrangements of cells and resistors.
Internal resistance: Lost voltage and internal resistance of batteries.
Electrical conduction: Ohmic and non-ohmic conductors, including metals and semiconductors.
Electrical energy and power: Their quantitative definitions and calculations.
Heating effect of current: Applications of electrical heating.
Energy conversion: Conversion of electrical energy into mechanical energy using electric motors, and conversion of solar energy into electrical or heat energy using solar cells and solar heaters.
Galvanometer: Use of a shunt and multiplier to convert a galvanometer into an ammeter or voltmeter.
Resistivity and conductivity: Factors affecting electrical resistance and simple calculations.
Electrical measurements: Operation and use of ammeters, voltmeters, potentiometers, Wheatstone bridges, and metre bridges.

26. Magnetic Field

Study the properties of magnets and magnetic materials, magnetic fields produced by magnets and electric currents, and the applications of magnetic effects.

Magnetic materials: Properties of magnets and materials such as soft iron, steel, and alloys.
Magnetisation and demagnetisation: Temporary and permanent magnets, including a comparison between iron and steel.
Magnetic fields: Magnetic flux and magnetic flux density.
Magnetic field patterns: Fields around permanent magnets, current-carrying conductors, and solenoids.
Neutral points: Locating neutral points by plotting magnetic field lines.
Units: Weber (Wb) for magnetic flux and tesla (T) for magnetic flux density.
Magnetic force on a current-carrying conductor: Qualitative treatment and applications in electric motors and moving-coil galvanometers.
Force between parallel current-carrying conductors.
Electromagnets: Their uses in devices such as electric bells and telephone earpieces.
Earth’s magnetic field: The mariner’s compass, angle of dip, and angle of declination.
Force on a moving charged particle: Simple calculations involving motion in a magnetic field.

The syllabus includes the relationship:

F = qvB sin θ

Where q is the charge, v is the velocity, B is the magnetic flux density, and θ is the angle between the velocity and magnetic field.

27. Electromagnetic Field

Study the interaction between electricity and magnetism, including electromagnetic induction and its practical applications.

Electromagnetic field: Understand the relationship between electric current, magnetic field, and force.
Fleming’s left-hand rule: Use it to identify the directions of current, magnetic field, and force.
Electromagnetic induction: Faraday’s law, Lenz’s law, and the motor-generator effect.
Generators: Principles behind the production of direct current (DC) and alternating current (AC).
Induction coil and transformer: Their principles and applications.
Inductance: Self-inductance and mutual inductance.
Unit of inductance: Henry (H).
Energy stored in an inductor: The syllabus includes the relationship E = 1/2 LI².
Applications of inductance: Radios, televisions, and transformers.
Eddy currents: How they arise, methods of reducing power losses, and applications in induction furnaces and speedometers.
Power transmission and distribution: Reducing power losses in high-tension transmission lines and understanding household wiring.

The syllabus includes the alternating e.m.f. relationship:

E = E₀ sin ωt

28. Simple AC Circuits

Study alternating current (AC), how its voltage and current vary with time, and the behaviour of resistors, inductors, and capacitors in AC circuits.

Graphical representation: Graphs of alternating e.m.f. and current.
Peak and root-mean-square values: Understand the meaning of peak and r.m.s. values.
AC circuit components: Resistors, inductors, and capacitors.
Series RLC circuits: Circuits containing a resistor, inductor, and capacitor.
Reactance and impedance: Inductive reactance (X_L) and capacitive reactance (X_C).
Vector diagrams: Phase relationships between voltage and current.
Resonance in an AC circuit: Its application in tuning radios and televisions.
Power in an AC circuit.

The syllabus includes simple numerical problems involving AC circuits but does not require derivation of the relevant formulas.

Part V: Atomic and Nuclear Physics

This section covers the structure of the atom, energy quantisation, photoelectric effect, thermionic emission, X-rays, the atomic nucleus, radioactivity, nuclear reactions, and wave-particle duality.

29. Structure of the Atom

(a) Models of the Atom

Study the major atomic models identified in the syllabus and their limitations.

Thomson’s model of the atom.
Rutherford’s model of the atom.
Bohr’s model of the atom.
The electron-cloud or wave-mechanical model.
Limitations of the different atomic models.
Quantisation of angular momentum in Bohr’s model.

The syllabus requires a qualitative discussion of these models.

(b) Energy Quantisation

Study the idea that electrons in atoms occupy specific energy levels.

Energy levels in the atom.
The relationship between colour and light frequency.
The Franck-Hertz experiment.
Line spectra from hot bodies.
Absorption spectra.
Spectra produced by discharge lamps.

(c) Photoelectric Effect

Understand the photoelectric effect and the evidence it provides for the particle nature of light.

Explanation of the photoelectric effect.
Dual nature of light.
Work function.
Threshold frequency.
Einstein’s photoelectric equation and its explanation.
Applications, including those involving television and cameras.

The syllabus includes simple numerical problems on the photoelectric effect.

(d) Thermionic Emission

Study the emission of electrons from a heated material and the applications of thermionic emission.

(e) X-rays

Study the production and properties of X-rays, their applications, and the precautions required when working with them.

Production of X-rays.
Structure of the X-ray tube.
Types and characteristics of X-rays.
Properties and uses of X-rays.
Hazards associated with X-rays.
Safety precautions against unnecessary exposure.

30. Structure of the Nucleus

(a) Composition of the Nucleus

Understand the basic composition of the atomic nucleus and the symbols used to represent nuclides.

Protons and neutrons.
Nucleon number (A).
Proton number (Z).
Neutron number (N).
The relationship between nucleon number, proton number, and neutron number: A = Z + N.
Nuclides and their notation.
Isotopes.

(b) Radioactivity: Natural and Artificial

Study radioactive substances, the types of radiation they emit, how radiation is detected, and the applications and risks of radioactivity.

Radioactive elements.
Alpha (α), beta (β), and gamma (γ) emissions.
Properties and uses of radioactive emissions.
Detection of radiation using instruments such as the Geiger-Müller (G-M) counter and photographic plates.
Radioactive decay.
Half-life and decay constant.
Transformation of elements.
Applications of radioactivity in agriculture, medicine, industry, and archaeology.

(c) Nuclear Reactions: Fusion and Fission

Understand the differences between nuclear fusion and nuclear fission and study the energy released during nuclear reactions.

Differences between nuclear fusion and nuclear fission.
Binding energy.
Mass defect.
The mass-energy relationship, E = Δmc².
Nuclear reactors.
The atomic bomb.
Radiation hazards and safety precautions.
Peaceful applications of nuclear reactions.

31. Wave-Particle Paradox

The final topic in this section deals with the dual nature of matter and light.

Electron diffraction: Understand how electron diffraction demonstrates wave-like behaviour.
Duality of matter: Study the idea that matter can exhibit both particle-like and wave-like properties.
Dual nature of light: Understand that light exhibits both wave-like and particle-like behaviour.

How to Prepare for Physics in JAMB UTME 2027

Preparing for Physics requires more than reading notes and memorising formulas. Candidates need to understand concepts, practise calculations, interpret graphs, and develop the ability to apply scientific principles to unfamiliar questions.

Use the following steps to organise your preparation.

1. Study the Syllabus Topic by Topic

Use the syllabus as a checklist while studying. Begin with a topic you understand reasonably well, then move to more difficult areas. Tick off each topic only after you have studied the main concepts and attempted relevant questions.

Pay attention to the full scope of each topic, including the notes and subtopics provided in the syllabus. Do not study only the headings while ignoring the details beneath them.

2. Understand the Principles Behind the Formulas

Physics formulas are useful, but memorising them without understanding their meaning can make it difficult to solve questions that are presented differently from examples in your textbook.

For every formula, identify the quantities involved, their units, and the conditions under which the relationship applies. Practise changing the subject of a formula and using it in different calculations.

3. Practise Numerical Questions Regularly

Set aside time to solve calculations from topics such as motion, forces, energy, heat, waves, electricity, magnetism, and nuclear Physics.

When solving a question, write down the known quantities, identify what you need to calculate, select the appropriate relationship, substitute the values, and check the unit of your answer.

4. Use Diagrams and Graphs

Some Physics concepts are easier to understand when represented visually. Practise drawing and interpreting relevant diagrams and graphs.

Examples include:

Distance-time and velocity-time graphs.
Waveforms and wave diagrams.
Ray diagrams for mirrors and lenses.
Electric and magnetic field patterns.
Load-extension graphs.
Graphs used to explain radioactive decay and other syllabus concepts.

5. Learn Practical Procedures and Apparatus

The supplied syllabus emphasises practical activities and experimental skills. Candidates should understand the purpose and use of relevant apparatus, how measurements are taken, and how experimental results are interpreted.

Where practical equipment is available, use it to investigate concepts such as reflection, refraction, vibrating strings, electrical circuits, and magnetic fields. If you cannot access laboratory equipment, study reliable demonstrations and practise interpreting experimental diagrams and results.

6. Practise Questions Under Timed Conditions

Use relevant practice questions and past questions to test your understanding. Practise answering within a set time so that you can identify topics that need more attention.

After each practice session, review incorrect answers. Determine whether the problem came from misunderstanding the concept, choosing the wrong formula, making a calculation error, or overlooking a unit.

Important: Past questions are useful revision tools, but they do not guarantee that the same questions will appear in the 2027 examination.

7. Review Your Weak Areas

Keep a list of topics you find difficult. Review them regularly instead of repeatedly studying only your strongest topics.

You may organise your revision into three groups:

Well understood: Topics you can explain and answer questions on confidently.
Needs practice: Topics you understand but still make mistakes on.
Needs further study: Topics you cannot yet explain or apply correctly.

Spend more time on the second and third groups while continuing to revise the first.

Common Mistakes to Avoid When Studying Physics

Memorising without understanding: Learn the meaning and application of each formula.
Ignoring units: Include the correct units in calculations and convert quantities when necessary.
Skipping difficult topics: Difficult areas may still be relevant to the examination.
Neglecting practical work: Study apparatus, experimental methods, observations, graphs, and precautions.
Rushing through calculations: Read questions carefully and check substitutions and arithmetic.
Relying entirely on past questions: Use them alongside the syllabus and your study materials.
Trusting unverified examination claims: Confirm current examination instructions and arrangements through official JAMB announcements.

Download the JAMB Physics Syllabus 2027 PDF

Candidates who want to study the syllabus offline can use the PDF document provided for this article. Save it to your phone or computer and refer to it while preparing for Physics.

Download the Physics Syllabus PDF: Click here to download the Physics syllabus PDF.

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Conclusion

The Physics syllabus provides a structured way to organise your preparation. Study each topic carefully, understand the principles behind important formulas, practise calculations, and develop your ability to interpret graphs and experimental results.

Do not rely on memorisation or predicted questions alone. Use the syllabus as a study checklist and verify current examination information through official JAMB announcements.

For more examination updates, study resources, and preparation guides, explore the related articles on Zamgist.net.