Physics CSS Syllabus 2027

Physics for CSS tests a candidate's grasp of fundamental physical principles across classical, modern, and applied domains. The subject is structured into two papers, each carrying 100 marks, covering a broad spectrum from mechanics to nuclear physics. A strong script demonstrates not only theoretical knowledge but also the ability to apply concepts, derive equations accurately, and solve problems with precision and clarity.

Marks
200
Papers
2
Type
Optional
Group
Group II
Sections
8
Topic points
15

How this paper is set and answered

From the notes printed under FPSC's own Revised Scheme tables.

  • Ratio of MCQs in compulsory papers for CE-2016 will be 20 MCQs in each paper except in the paper of Essay. Similarly there will be 20 MCQs from each optional paper except Pure Mathematics and Applied Mathematics.

Complete Physics Syllabus

The full official FPSC syllabus, reproduced section by section from the source document.

Paper I100 marks

1

Mechanics

4 points
  • Vectors: Dots, Cross and triple products, Gradient, divergence, curl and applications.
  • Newtonian laws of motion: calculus based approach to kinematics, forces and dynamics, conservation law of energy; conservation of linear and angular momentum; Dynamics of rigid body; spin and precession; gyroscope;
  • Gravitation; planetary motion and satellites; Kepler's laws; centripetal forces
  • Special theory of relativity: Michelson-Morley experiment and Einstein’s postulates; Lorentz transformation; time dilation and length contraction; equivalence of mass and energy.
2

Fluid Mechanics

1 point
  • Surface tension; Viscosity; Elasticity; fluid motion and Bernoulli’s theorem.
3

Waves and Oscillations, Optics

3 points
  • Free oscillation with one and two degrees of freedom; forced and damped oscillations and phenomenon of resonance; Simple harmonic motion; Traveling waves and transmission of energy; Phase and Group velocity; standing waves;
  • Basics of sound waves.
  • Reflection, Refraction, Interference, Diffraction and Polarization of waves; interfero meter and Newton’s rings; Diffraction Gratings and their resolving power; spectro meters. Electromagnetic wave equation; normal and anamolous dispersion; coherence, lasers and applications.
4

Heat and Thermodynamics

1 point
  • Perfect gas, real gas and Van der Waals equation; Three Laws of Thermodynamics; internal energy; temperature; entropy; Thermal properties of simple systems; kinetic theory of gases; Maxwellian distribution of molecular velocities; Brownian motion; Transport phenomena. Classical Maxwell-Boltzmann Statistics and its application; Bose-Einstein and Fermi-Dirac Statistics.

Paper II100 marks

5

Electricity and Magnetism

2 points
  • Electric field due to point charges; Gauss’ law; Electric potential; Poisson and Laplace’s equations; Dielectric medium and Polarization; Capacitance;
  • Moving charges and resulting magnetic field; Ampere’s law; Magnetic properties of matter; Faraday’s law of electromagnetic induction; Alternating current and RLC circuit; Poynting theorem and Poynting Vector. Maxwell's equations in integral and differential form; scalar and vector potential.
6

Modern and Quantum Physics

2 points
  • Waves and particles and De Broglie’s Hypothesis; Operators and quantum states; observables; time dependent and independent Schrodinger equation; angular momentum; spin-1/2 particle in a magnetic field; wave mechanics; particle in a box; tunneling; one-dimensional harmonic oscillator; Heisenber's uncertainty relationship and indeterminacy based on commutation properties of operators;
  • Bohr’s theory and quantum numbers including electron spin; Pauli’s exclusion principle; Spectra of simple systems with one or two valence electrons; photo electric effect; Compton scattering; pair production; Lande’s g factor and Zeeman effect. Raman effect;
7

Solid State Physics

1 point
  • Crystal lattice and structure, Bravais lattice, free electron model, Band theory and electron in a periodic potential, Fermi energy and density of states, n and p type semiconductors, physics of the transistor and MOSFET, dielectric properties, magnetic properties and origin of magnetism.
8

Nuclear Physics

1 point
  • Structure of Nuclei; Radioactivity,, and decay; Methods of detection of nuclear radiation, Mass Sepectrometer; Accelerators; Phenomenon of fission; reactor and nuclear power; nuclear fusion and its applications; Elementary particles and their properties.

Preparation Strategy for Physics (CSS)

Physics for CSS tests a candidate's grasp of fundamental physical principles across classical, modern, and applied domains. The subject is structured into two papers, each carrying 100 marks, covering a broad spectrum from mechanics to nuclear physics. A strong script demonstrates not only theoretical knowledge but also the ability to apply concepts, derive equations accurately, and solve problems with precision and clarity.

Physics is a highly technical, 200-mark subject strictly for candidates with a B.Sc or Engineering background. It is deeply mathematical and derivation-heavy.

1. Derivations and Numerical Problems: More than 60% of the paper consists of mathematical derivations and numerical solving. Step-by-step mathematical logic must be clearly demonstrated.

2. Core Vectors: Ensure perfect grasp of Mechanics, Thermodynamics (Paper I), and Electromagnetism, Modern Physics, and Solid State Physics (Paper II). Use standard textbooks like Resnick Halliday, and solve textbook numerical problems to secure top scores.

3. Diagrammatic Accuracy: Complex physics concepts should be supplemented by clearly labeled diagrams and circuit maps where applicable.

Paper by paper

Paper I

This paper covers foundational areas like Mechanics, Fluid Mechanics, Waves and Oscillations, Optics, and Heat and Thermodynamics. Prioritise a deep understanding of derivations for concepts such as Newtonian laws of motion, Bernoulli's theorem, wave phenomena, and the Three Laws of Thermodynamics. Practice numerical problems extensively, especially from Mechanics and Heat and Thermodynamics, to ensure thorough application of principles.

Paper II

Paper II delves into Electricity and Magnetism, Modern and Quantum Physics, Solid State Physics, and Nuclear Physics. Focus on mastering Maxwell's equations and their applications in Electricity and Magnetism. For Modern and Quantum Physics, conceptual clarity on Schrodinger's equation, quantum numbers, and effects like Zeeman and Compton scattering is crucial. Solid State and Nuclear Physics require understanding structures, processes, and applications.

A six-month plan

  1. 1
    Foundational ConceptsWeeks 1-6

    Begin with SECTION: Mechanics, covering vectors, Newtonian laws, gravitation, and special theory of relativity. Follow with SECTION: Fluid Mechanics, focusing on surface tension, viscosity, and Bernoulli's theorem. Aim for conceptual clarity and basic problem-solving.

  2. 2
    Waves, Optics & ThermodynamicsWeeks 7-12

    Move to SECTION: Waves and Oscillations, Optics, studying free and forced oscillations, wave properties, and optical phenomena like interference and diffraction. Conclude Paper I preparation with SECTION: Heat and Thermodynamics, mastering the three laws, kinetic theory, and statistical mechanics.

  3. 3
    Electromagnetism & Quantum BasicsWeeks 13-18

    Initiate Paper II with SECTION: Electricity and Magnetism, focusing on Gauss' law, electric potential, Ampere's law, Faraday's law, and especially Maxwell's equations. Then, delve into the basics of SECTION: Modern and Quantum Physics, covering De Broglie's hypothesis, Schrodinger equation, and Heisenberg's uncertainty relationship.

  4. 4
    Advanced Quantum & Solid StateWeeks 19-24

    Continue with SECTION: Modern and Quantum Physics, exploring angular momentum, particle in a box, Bohr's theory, Pauli's exclusion principle, and effects like photo electric and Zeeman. Transition to SECTION: Solid State Physics, understanding crystal lattices, band theory, semiconductors, and magnetic properties.

  5. 5
    Nuclear Physics & RevisionWeeks 25-26

    Complete the syllabus with SECTION: Nuclear Physics, studying nuclear structure, radioactivity, fission, fusion, and elementary particles. Dedicate the remaining time to comprehensive revision of all sections, focusing on past papers and identifying frequently tested topics.

High-yield topics

Each one is traced back to the section of the official syllabus it comes from.

Newtonian laws of motion

These laws form the bedrock of classical mechanics and are frequently tested for their application in various scenarios, including derivations and problem-solving.

Syllabus section: Mechanics

Three Laws of Thermodynamics

Fundamental to understanding energy, entropy, and heat transfer. Questions often involve their statements, implications, and applications to different systems.

Syllabus section: Heat and Thermodynamics

Maxwell's equations in integral and differential form

These equations are the cornerstone of electromagnetism. A thorough understanding of their derivation, physical meaning, and application is essential for Paper II.

Syllabus section: Electricity and Magnetism

time dependent and independent Schrodinger equation

Central to quantum mechanics, these equations are crucial for describing quantum states and particle behaviour. Derivations and applications (e.g., particle in a box) are commonly examined.

Syllabus section: Modern and Quantum Physics

Special theory of relativity: Michelson-Morley experiment and Einstein’s postulates; Lorentz transformation; time dilation and length contraction; equivalence of mass and energy.

This section introduces revolutionary concepts that are frequently tested for their theoretical basis, derivations, and conceptual implications.

Syllabus section: Mechanics

Crystal lattice and structure, Bravais lattice, free electron model, Band theory and electron in a periodic potential

These topics are foundational for Solid State Physics, explaining the properties of materials. Understanding these concepts is vital for answering questions on semiconductors and material behaviour.

Syllabus section: Solid State Physics

Radioactivity, ,  and  decay; Phenomenon of fission; reactor and nuclear power; nuclear fusion and its applications

Core concepts in Nuclear Physics, frequently appearing in questions related to nuclear processes, energy generation, and elementary particles.

Syllabus section: Nuclear Physics

Common mistakes in Physics answers

  • Failing to provide clear and logical steps in derivations, leading to loss of marks even if the final answer is correct.
  • Incorrectly applying formulas or using wrong constants in numerical problems, indicating a lack of conceptual clarity.
  • Neglecting to draw well-labelled diagrams where they would enhance understanding, particularly in Optics, Electricity and Magnetism, and Solid State Physics.
  • Confusing similar concepts, such as phase velocity and group velocity, or different types of statistical distributions.
  • Insufficient practice with the objective component, leading to errors in basic definitions and principles.
  • Not managing time effectively during the exam, resulting in incomplete answers for longer, more complex questions.

FPSC recommended books

The 7 books FPSC lists for Physics in the official syllabus.

TitleAuthor
1. Perspectives of Modern Physics.A. Beiser.
2. Fundamentals of Physics.Halliday & Resnick
3. Introduction to Electromagnetic Fields and Waves.D. Corson & P. Lorrain.
4. Heat and Thermodynamics.D. Zemansky
5. Introduction to Quantum MechanicsD. Griffiths
6. Modern PhysicsSerway, Moses, Moyer.
7. Solid State PhysicsC. Kittel

Frequently asked questions

Is it necessary to study all the recommended books listed by FPSC?

It is not strictly necessary to study every recommended book cover-to-cover. The FPSC syllabus is your primary guide. Use the recommended books as reference materials to gain a deeper understanding of specific topics outlined in the syllabus, rather than attempting to read them all exhaustively.

How much emphasis should be placed on numerical problems in Physics?

Significant emphasis should be placed on numerical problems. Physics is an application-based subject, and a substantial portion of the papers, particularly in sections like Mechanics, Heat and Thermodynamics, and Electricity and Magnetism, will test your ability to apply theoretical concepts to solve numerical problems. Regular practice is key.

What is the best way to prepare for the objective portion of the Physics paper?

The best approach for the objective portion is consistent practice using tools like the MPT Trainer. Focus on understanding fundamental definitions, laws, and principles from all sections of the syllabus. Regular MCQ practice will help you identify weak areas and improve both speed and accuracy in answering objective questions.

Should I memorise all derivations, or is understanding enough?

While memorisation can help, a deep understanding of the steps and underlying physical principles of derivations is far more crucial. If you understand the logic, you can reconstruct a derivation even if you forget a specific step. This approach also helps in applying derivations to slightly modified problems.

How can I effectively manage the vast syllabus of Physics for CSS?

Effective syllabus management involves breaking it down into manageable sections, as suggested in the study plan. Focus on mastering one section at a time, ensuring conceptual clarity before moving on. Prioritise high-yield topics and allocate more time to areas where you feel less confident, integrating regular revision.

Are diagrams important when answering Physics questions?

Yes, well-drawn and clearly labelled diagrams are very important in Physics answers. They can significantly improve the clarity of your explanations, especially for topics in Optics, Electricity and Magnetism, Solid State Physics, and Mechanics. A good diagram can often convey complex ideas more effectively than words alone.

Syllabus text reproduced from Revised Syllabi for CSS Competitive Examination, CE-2016 (updated 7 July 2015), pages 126-127. Marks and grouping are from the same document's Revised Scheme tables. Verify against the official PDF before relying on it.

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