BSEB Inter Physics study plan

Derive Coulomb's law, electric field, and potential for point charges and simple symmetric configurations from first principles

Compute flux through closed surfaces using Gauss's law for sphere, cylinder, and infinite plane geometries

Solve 15 numericals on capacitors in series/parallel and energy stored in a charged capacitor

Explain the physical meaning of field lines, equipotential surfaces, and their orthogonality in words

Set up a formula sheet for electrostatics with units and dimensions of each quantity

Derive drift velocity and current density from the free-electron model and state the origin of resistivity

Apply Kirchhoff's laws to solve 10 multi-loop circuits, including Wheatstone bridge balance conditions

Calculate equivalent resistance, terminal voltage, and internal-resistance effects in mixed circuits

Solve potentiometer and meter-bridge numericals using balance-length relations

Practice dimensional analysis and error propagation on 8 mixed numericals

Apply Biot-Savart and Ampere's circuital law to straight wire, circular loop, and solenoid configurations

Compute force on a current-carrying conductor and on a moving charge in uniform magnetic fields

Derive and use the expression for magnetic dipole moment of a current loop and torque on it

Explain para-, dia-, and ferromagnetic behaviour in terms of atomic dipoles and domain alignment

Solve 12 numericals combining magnetic field strength, force, and torque

Derive Faraday's and Lenz's laws from flux-change reasoning and apply them to 8 induction problems

Compute self-inductance of a solenoid and mutual inductance of coaxial coils

Analyse series LCR circuits: impedance, phase angle, resonance frequency, and power factor

Solve transformer and AC power numericals using rms and peak values correctly

Time yourself on a 20-question mixed numerical set covering weeks 1-4

Classify the EM spectrum by wavelength, source, and one practical use for each band

Derive mirror and thin-lens relations and solve 10 image-formation problems including sign conventions

Explain interference, diffraction, and polarisation qualitatively and state Young's double-slit fringe-width formula

Apply photoelectric equation and de Broglie relation to 10 numericals

Distinguish photoelectric effect predictions from classical wave theory in written points

Derive Bohr's radius and energy-level expression and compute spectral line wavelengths for hydrogen

Explain mass defect, binding energy, and nuclear fission/fusion energetics with worked numbers

Apply radioactive decay law and half-life to 8 numericals

Describe p-n junction formation, forward/reverse bias, and diode I-V behaviour

Solve rectifier, transistor amplifier, and logic-gate questions including truth tables

Write the circuit diagram, procedure, and precautions for 8 standard experiments such as Ohm's law, meter bridge, and potentiometer

Identify least count, zero error, and instrument choice for common lab apparatus

Explain modulation, bandwidth, and the need for modulation in communication systems

Describe optical fibre and satellite communication advantages in 5 precise points

Solve 10 assertion-reason and conceptual reasoning questions

Re-solve every logged error from weeks 1-7 without referring to notes

Complete two full-length timed mock papers under exam conditions

Recall all key formulas from memory in a blank-sheet dump for each domain

Rank domains by mock-test accuracy and revise the two weakest for 3 hours