Basic Mathematics for NEET and JEE

Goal
Strengthen Class 9–10 concepts that repeatedly appear in Class 11–12 topics and in entrance numericals (especially Physics & Chemistry calculations for NEET, and foundational tools for JEE Maths).

Duration
6–10 weeks (≈ 60–100 hours total)
Ideal pace: 8–12 hours/week during summer vacation.

Target students

  • Average/good in Class 10 Maths → aim for very strong command
  • Weak/average performers → aim to reach at least 80–85% level in these topics

Core Philosophy
Revise Class 10 syllabus deeply + learn selected advanced applications / extensions that directly feed into Class 11 chapters.

Priority Topics & Suggested Time Allocation

 
 
# Topic Approx. Hours Why Extremely Important for JEE / NEET Main Class 11–12 Linkage
1 Quadratic Equations (all types, nature of roots, sum/product, word problems) 8–10 Appears directly in Physics (projectile, SHM, lens formula), Chemistry (equilibrium, kinetics) Quadratic in almost every chapter
2 Trigonometry Identities & Equations 10–12 Core for vectors, projectile, waves, optics, SHM, AC circuits Trigonometric Functions (11), Inverse Trig (12)
3 Heights & Distances 4–6 Direct application in vectors, optics, mechanics Used throughout Physics
4 Basic Trigonometric Ratios & Values (exact values up to 3 decimal places without calculator) 4–5 Speed in Physics numericals (projectile, resolution, refraction) All vector & wave chapters
5 Coordinate Geometry – Straight Lines 8–10 Slope = tanθ = velocity/acceleration/rate, intercept form, distance from point to line Straight Lines (11), Circles (11), Conics (12)
6 Circles (equation, tangent, intersection) 6–8 Loci problems, optics (mirror/lens), magnetic field paths Circle chapter (11), Conic sections
7 Arithmetic Progression & Geometric Progression (sum, nth term, mean) 6–8 Binomial theorem applications, sequences in physics (radioactive decay series) Sequence & Series (11)
8 Basic Logarithms & Exponents (laws, change of base, log tables/calculator use) 5–7 pH, kinetics, decay, Nernst equation, error calculation Used in Physical Chemistry & Modern Physics
9 Polynomials (remainder theorem, factor theorem, zeroes & coefficients) 4–6 Basis for higher-degree equations & partial fractions later Complex numbers, quadratic extensions
10 Real Numbers, Euclid’s division, HCF/LCM, irrationality proofs (very light) 3–4 Helps in surds & indices simplification Surds in algebra
11 Mensuration (surface area + volume – cylinder, cone, sphere, combination solids) 5–7 Physics – buoyancy, heat transfer, capacitance, charge density Used sporadically but saves time
12 Similarity of Triangles & Basic Theorems (BPT, Pythagoras applications) 4–6 Ray optics, similar figures in graphs Coordinate geometry proofs, optics
13 Basic Graph plotting & Interpretation (linear, quadratic, distance-time, velocity-time) 5–7 Almost every Physics chapter uses graphs (motion, thermodynamics, current-voltage) Kinematics graphs, rate graphs
14 Surds & Indices (simplification, rationalisation) 3–5 Chemistry numericals, Physics constants Algebra throughout
15 Linear Equations in Two Variables (graphical + algebraic solution, consistency) 4–6 Basis for matrices & determinants later Straight lines, intersection problems
 

Optional / Good-to-Have (if time remains – 10–15 extra hours total)

  • Area related to circles (sector, segment)
  • Construction & loci (very light – improves visualisation)
  • Probability (classical definition + simple problems)
  • Statistics (mean, median, mode, cumulative frequency graph)
  • Very basic sets & Venn diagrams

Suggested Weekly Structure (8-week plan example)

Weeks 1–2 → Quadratic Equations + Logarithms & Exponents
Weeks 3–4 → Trigonometry full (identities + equations + heights & distances)
Week 5 → Straight Lines + Basic graph interpretation
Week 6 → Circles + Similarity of triangles
Week 7 → AP/GP + Polynomials
Week 8 → Mensuration + Surds/Indices + Mixed revision + mini-mocks