Every week your student advances through fundamental physics concepts — from electric charges, forces, and fields, to circuits, magnetism, and wave optics. Tap any point on the curve or week below to explore the roadmap.
Tap any point on the curve — or any week below — to open the details.
Key academic checkpoints set for Semester 1.
Comprehensive review sessions covering all core modules prior to final exams.
Cumulative evaluation covering all electrostatics, circuits, magnetism, and wave optics modules.
Electric charges form the fundamental basis for all electromagnetic phenomena.
Quantifying electrostatic interactions allows us to predict atomic and macro-level forces.
Mastering force superposition provides essential practice for field interactions.
Electric fields explain how charged objects exert forces through empty space.
A short holiday pause alongside applications of electric fields.
Capacitors and electric fields form core components in modern electronics.
Electric current transforms electrostatic energy into practical electrical energy.
Quantifying power usage connects classroom physics with energy management.
Series and parallel circuits are foundational to electrical circuit design.
Analyzing circuit combinations builds advanced troubleshooting skills.
Understanding electrical safety prevents overloads and hazardous circuit faults.
Magnetic fields govern motor mechanics, compasses, and planetary physics.
Magnetic forces on moving charges enable electric motors and particle accelerators.
A scheduled autumn break to rest and prepare for the final topics.
Torque on current-carrying loops is the working principle behind electric motors.
Interference proves the wave nature of light, enabling precision optics.
Diffraction limits optical resolution and powers spectroscopic analysis.
A dedicated week to review and consolidate all semester topics.
Evaluation covering electrostatics, circuits, magnetism, and wave optics.
Final evaluation concludes the semester journey.