Chapter-wise breakdown of Numericals vs Conceptuals vs Derivations based on 2017-2025 Board Papers
Ch 1: Increased MCQs on field line patterns and Gauss's law applications to non-symmetric cases
Ch 2: Case studies on capacitor networks and practical applications of dielectrics
Ch 3: Competency-based questions on real-life circuit applications and error analysis
Ch 4: Focus on vector nature of magnetic field and comparison problems
Ch 5: Diagram-based questions on BH curve and magnetic materials classification
Ch 6: Application-based problems on energy conservation using Lenz's law
Ch 7: Graph interpretation of voltage-current phase relationships
Ch 8: Match the following type questions on EM spectrum applications
Ch 9: Numerical-based MCQs with diagram interpretation
Ch 10: Comparison tables between interference and diffraction patterns
Ch 11: Graph analysis questions from experimental data
Ch 12: Assertion-Reason questions on atomic models
Ch 13: Application problems on nuclear energy and medical applications
Ch 14: Truth table completion and circuit design problems
of total marks
of total marks
of total marks
| Rank | Most Numerical Chapters | Percentage | Most Conceptual Chapters | Percentage |
|---|---|---|---|---|
| 1 | Ch 3: Current Electricity | 80% | Ch 8: EM Waves | 95% |
| 2 | Ch 7: Alternating Current | 75% | Ch 5: Magnetism & Matter | 85% |
| 3 | Ch 2: Electrostatic Potential | 70% | Ch 14: Semiconductors | 70% |
| 4 | Ch 4: Moving Charges | 65% | Ch 12: Atoms | 60% |
| 5 | Ch 13: Nuclei | 60% | Ch 1: Electric Charges | 50% |
1. NCERT is KING: 85% of paper comes directly from NCERT
2. Competency Questions: 40% of paper will be application-based
3. Diagram Marks: Minimum 8-10 marks for diagrams
4. Unit Consistency: 1 mark deducted for wrong units in numericals
5. Step-wise Solutions: Partial marks given for correct steps
Competency Focus Areas: Real-life circuit analysis (Ch 3 & 7), Logic circuit design (Ch 14), Nuclear applications (Ch 13)
Increased Weightage: Applications of Gauss's Law, Capacitor networks, Transformer efficiency
Reduced Focus: Lengthy derivations without applications, Historical experiments in detail
| Phase | Duration | Focus Areas | Key Activities |
|---|---|---|---|
| Phase 1 | 60 days | Foundation Building | • Complete conceptual chapters first (Ch 5, 8, 12, 14) • Master derivations from Ch 1, 10, 12 • Solve 30% of numericals from each chapter |
| Phase 2 | 45 days | Numerical Mastery | • Focus on high-numerical chapters (Ch 2, 3, 4, 7, 9, 13) • Solve ALL NCERT examples and exercises • Practice time-bound numerical solving |
| Phase 3 | 30 days | Integration & Revision | • Chapter linking (Ch 2 with Ch 8, Ch 6 with Ch 7) • Solve previous 5 years papers • Take mock tests with exact time limits |
| Phase 4 | 15 days | Final Touch | • Only NCERT + Exemplar revision • Daily formula revision • Diagram practice for all experiments |
| Chapter | Study Hours | Primary Focus | Strategy |
|---|---|---|---|
| Ch 3 + Ch 7 | 40 hours | Circuit Mastery | Maximum numerical practice |
| Ch 2 + Ch 13 | 30 hours | Numerical Intensive | Problem-solving focus |
| Ch 4 + Ch 9 | 25 hours | Mixed | Balance concepts & numericals |
| Ch 1 + 6 + 10 + 11 | 35 hours | Balanced | Complete coverage |
| Ch 5 + 8 + 12 + 14 | 30 hours | Conceptual Mastery | Theory & definitions |
| Revision + Papers | 20 hours | Integration | Full syllabus integration |
1. Kirchhoff's law application (Ch 3) - Appeared 9 out of 10 years
2. Capacitor combination (Ch 2) - Appeared 8 out of 10 years
3. Photoelectric effect graphs (Ch 11) - Appeared 7 out of 10 years
4. Logic gate circuits (Ch 14) - Appeared 6 out of 10 years
5. Nuclear binding energy (Ch 13) - Appeared 5 out of 10 years
If you master the numericals from Ch 2, 3, 7, 13 and concepts from Ch 5, 8, 11, 14, you've covered 70% of the paper. The remaining 30% comes from balanced preparation of other chapters.
Best of luck! Focus on understanding patterns rather than memorizing problems.