Value‑Added Course

Closing the gap between
school mathematics
and university study.

A 30 hour value‑added course designed to rebuild core mathematical foundations — algebra, functions, trigonometry, coordinate geometry, and an introduction to matrices, calculus, & statistics — before students meet first‑year coursework.

SCHOOL MATH UNIVERSITY MATH 1 2 3 4 5 6
30
Contact Hours
6
Units
15
Sessions
6
Graded Assignments
Why this course

Rebuilding the foundation, deliberately.

Many first‑year students arrive with gaps in core mathematical reasoning that quietly undermine every course that depends on it. This bridge programme is not a repeat of school syllabi — it is a focused rebuild of the ideas that recur most often in university mathematics, statistics, and the sciences.

01 · PURPOSE

Diagnose, then rebuild

Each unit opens with a short diagnostic discussion, then works forward from first principles rather than assuming prior fluency.

02 · METHOD

Problem‑first sessions

Every concept is introduced through a worked problem before its formal statement, with guided practice inside class time.

03 · OUTCOME

Readiness, not recall

Students leave able to manipulate expressions, read graphs, and reason quantitatively — the working vocabulary of their degree.

Course Structure

Syllabus at a glance

Six units, sequenced so each builds the tools the next one needs. Full detail, session plans, and problems for every unit are in the section below.

UnitTitleCore TopicsHours
U1Algebraic FoundationsNumber systems, identities, Linear & quadratic equations6 hrs
U2Functions & GraphsDomain/range, standard functions, composition, inverses6 hrs
U3Trigonometry & Coordinate Geometry Angle measure, ratios, identities, distance/section formulae, vectors4 hrs
U4Matrix AlgebraTypes of matrices, Basic matrix operations.4 hrs
U5Differential CalculusLimits, continuity, differentiation, differential equations4 hrs
U6Integral CalculusIntegration techniques, applications4 hrs
Consolidation & Final AssessmentReview clinic and closing evaluation2 hrs
Lesson Plan

Unit‑wise plan, problems & material

Open a unit for its learning outcomes, session‑wise lesson plan, in‑class practice problems, the graded assignment, and reference links. Session notes, slides, and recordings are posted here after each class.

U1

Algebraic Foundations

6 hrs · Coordinators: Mr. Sainathan, Mr. Sampath

Topics Covered

  • Sets and the number system: ℕ, ℤ, ℚ, ℝ
  • Laws of indices and simplification of surds
  • Standard algebraic identities
  • Factorization of quadratic and cubic expressions
  • HCF & LCM of polynomials
  • Linear equations in one and two variables
  • Quadratic equations: factoring, formula, nature of roots
  • Linear inequalities and their solution sets
  • Remainder and factor theorems
  • Proof Techniques: Induction, Converse, Inverse, Contrapositive, Contradiction, Counter Example

Learning Outcomes

  • Classify a given number within the real number system
  • Simplify expressions involving surds and rational exponents
  • Apply identities to expand and factorize expressions
  • Rationalize denominators confidently
  • Solve simultaneous linear equations by substitution/elimination
  • Solve quadratic equations by two independent methods
  • Represent inequality solutions on the number line
  • Apply the remainder theorem to evaluate polynomials
  • Construct valid mathematical proofs

Session Plan

SessionDurationFocusIn‑class Activity
S11 hrNumber systems, indices & surdsDiagnostic quiz + guided simplification practice
S11 hrIdentities & factorizationWorked examples, paired problem solving
S22 hrsLinear & quadratic equationsBoard work + individual solving practice
S22 hrsInequalities & remainder theoremCase discussion + short quiz

In‑class Practice Problems

  • P1.1 Simplify: (3√2 + √18) − √50
  • P1.2 Rationalize the denominator of 1 / (√5 − √3)
  • P1.3 Prove: (a + b)³ = a³ + b³ + 3ab(a + b)
  • P1.4 Factorize: x² − 5x + 6 and 8x³ − 27
  • P1.5 Solve: 2x + 3y = 12, x − y = 1
  • P1.6 Solve x² − 7x + 12 = 0 using the quadratic formula
  • P1.7 Solve and graph: 3x − 5 ≤ 2x + 4
  • P1.8 Find the remainder when x³ − 3x² + 4 is divided by (x − 2)

Assignment 1 · Due before Session 3

  • A1.1 Simplify (2⁵⁵ · 4⁴) / 8³
  • A1.2 Factorize x&sup4; − y&sup4; completely
  • A1.3 Find the HCF and LCM of x² − 1 and x² + 2x + 1
  • A1.4 Simplify √(12) + √(27) − √(48)
  • A1.5 If a + b = 7 and ab = 10, find a² + b²
  • A1.6 Solve for x: 5x − 3(x + 2) = 4
  • A1.7 Determine the nature of the roots of 2x² + 3x + 5 = 0
  • A1.8 Solve the inequality −3 < 2x + 1 ≤ 7
  • A1.9 Use the factor theorem to check if (x + 1) is a factor of x³ + 3x² − x − 3
  • A1.10 Two numbers differ by 3 and their product is 40. Find the numbers.

Textbooks & Links

Unit Material

U2

Functions & Graphs

6 hrs · Coordinators: Mr. Sainathan, Mr. Sampath

Topics Covered

  • Relations vs. functions; domain and range
  • Linear, quadratic, modulus, exponential and log functions
  • Graph sketching and transformations
  • Composition of functions and inverses

Learning Outcomes

  • Determine domain and range of common functions
  • Sketch and interpret basic function graphs
  • Compose two functions and find an inverse

Session Plan

SessionDurationFocusIn‑class Activity
S53 hrsRelations, functions, domain/rangeGraphing exercise on grid paper
S63 hrsComposition & inversesGroup activity with Desmos

In‑class Practice Problems

  • P2.1 Find the domain of f(x) = 1 / (x − 3)
  • P2.2 Sketch y = |x − 2| and state its range
  • P2.3 If f(x) = 2x + 1 and g(x) = x², find (f°g)(x)
  • P2.4 Find the inverse of f(x) = 3x − 4

Assignment 2 ·

  • A2.1 Find the domain and range of f(x) = √(x − 4)
  • A2.2 Sketch y = 2ⁿ and describe its behaviour as x → −∞
  • A2.3 If f(x) = x² − 1 and g(x) = x + 2, find (g°f)(3)
  • A2.4 Show that f(x) = 5 − 2x is one‑to‑one and find f⁻¹(x)
  • A2.5 State whether the relation {(1,2),(1,3),(2,4)} is a function; justify

Textbooks & Links

Unit Material

U3

Trigonometry & Coordinate Geometry

4 hrs · Coordinators: Mr. Sriram, Mr. Karthik

Topics Covered

  • Angle measurement: degrees and radians
  • Trigonometric ratios and the unit circle
  • Standard identities
  • Simple trigonometric equations
  • Heights and distances
  • Distance and section formulae
  • Equation of a straight line; slope
  • Basics of the circle
  • Introduction to vectors: magnitude, direction, addition

Learning Outcomes

  • Convert fluently between degrees and radians
  • Prove and apply basic trigonometric identities
  • Solve trig equations over a given interval
  • Apply trigonometry to height & distance problems
  • Derive the equation of a line under given conditions
  • Compute distance, midpoint and section ratios
  • Perform basic vector addition and scalar multiplication

Session Plan

SessionDurationFocusIn‑class Activity
S71 hrAngle measure & ratiosUnit circle construction exercise
S80.5 hrIdentities & equationsIdentity proof workshop
S91 hrHeights & distancesApplied word‑problem clinic
S101 hrStraight lines & distance formulaeCoordinate plane plotting exercise
S110.5 hrCircles & vector basicsVector diagram workshop

In‑class Practice Problems

  • P3.1 Convert 150° to radians
  • P3.2 Prove: sin²θ + cos²θ = 1 using the unit circle
  • P3.3 Solve 2 sinθ = 1 for θ ∈ [0, 2π]
  • P3.4 A tower's shadow is 30 m when the sun's elevation is 30°. Find the tower's height.
  • P3.5 Find the distance between (2, 3) and (−1, 7)
  • P3.6 Find the equation of the line through (1, 2) and (3, 8)
  • P3.7 Find the midpoint of the segment joining (−2, 5) and (4, 1)
  • P3.8 Add vectors a = (2, 3) and b = (−1, 4)

Assignment 3

  • A3.1 Convert 5π/6 radians to degrees
  • A3.2 Prove: (1 + tan²θ) = sec²θ
  • A3.3 Solve cosθ = −1/2 for θ ∈ [0, 2π]
  • A3.4 Simplify sin(90° − θ) + cos(180° − θ)
  • A3.5 From a point 50 m from a building's base, the angle of elevation to the top is 45°. Find the building's height.
  • A3.1 Find the slope and y‑intercept of 3x − 2y + 6 = 0
  • A3.2 A point divides the segment joining (1, 1) and (7, 4) in the ratio 2:1. Find the point.
  • A3.3 Find the equation of the circle with centre (2, −3) and radius 5
  • A3.4 Find the magnitude of vector v = (3, 4)
  • A3.5 Show that (0,0), (4,0), (4,3) form a right triangle using the distance formula

Textbooks & Links

Unit Material

U4

Matrix Algebra

4 hrs · Coordinator: Mr. Om, Mr. Srinand

Topics Covered

  • Definition of a matrix; order and types (row, column, square, diagonal, identity, zero)
  • Algebra of matrices: addition, subtraction, scalar multiplication
  • Matrix multiplication and its properties
  • Transpose of a matrix
  • Determinants of 2×2 and 3×3 matrices
  • Inverse of a 2×2 matrix using the adjoint method
  • Solving a system of linear equations using matrices

Learning Outcomes

  • Classify matrices by order and type
  • Perform matrix addition, subtraction and multiplication accurately
  • Compute the determinant of 2×2 and 3×3 matrices
  • Find the inverse of a 2×2 matrix using the adjoint method
  • Apply matrices to solve a system of linear equations

Session Plan

SessionDurationFocusIn‑class Activity
S152 hrsMatrix definitions & algebraMatrix construction & operations worksheet
S162 hrsDeterminants, inverses & linear systemsSolving systems of equations using matrices

In‑class Practice Problems

  • P4.1 Given A = [[1,2],[3,4]] and B = [[0,1],[2,1]], find A + B and A − B
  • P4.2 Multiply A = [[1,2],[3,4]] and B = [[2,0],[1,3]]
  • P4.3 Find the transpose of A = [[1,2,3],[4,5,6]]
  • P4.4 Evaluate the determinant of [[3,1],[2,4]]
  • P4.5 Find the inverse of [[2,1],[5,3]] using the adjoint method

Assignment 4

  • A4.1 If A = [[2,−1],[0,3]] and B = [[1,4],[2,−2]], find 2A − 3B
  • A4.2 Find AB and BA for A = [[1,0],[2,1]], B = [[3,1],[0,2]]; comment on whether AB = BA
  • A4.3 Evaluate the determinant of [[1,2,3],[0,1,4],[5,6,0]]
  • A4.4 Find the inverse of [[4,3],[3,2]] and verify AA⁻¹ = I
  • A4.5 Use matrices to solve: x + 2y = 5, 3x − y = 1

Textbooks & Links

Unit Material

U5

Differential Calculus

4 hrs · Coordinators: Mr. Dindi, Mr. Sumanth

Topics Covered

  • Limits: an intuitive introduction
  • Derivative as a rate of change; basic differentiation rules
  • Mean, median, mode
  • Introduction to basic probability

Learning Outcomes

  • Evaluate simple limits by direct substitution and factoring
  • Differentiate basic polynomial functions
  • Compute measures of central tendency for a data set
  • Solve elementary probability problems

Session Plan

SessionDurationFocusIn‑class Activity
S123 hrsLimits & differentiation basicsTangent‑line visual exercise
S141 hrBasic probabilityDice & card problem drills

In‑class Practice Problems

  • P5.1 Evaluate lim (x→2) (x² − 4)/(x − 2)
  • P5.2 Differentiate f(x) = 3x³ − 5x + 7
  • P5.3 Find the mean and median of: 4, 8, 6, 5, 3, 9, 7
  • P5.4 A die is rolled once. Find P(number > 4)

Assignment 5

  • A5.1 Evaluate lim (x→0) (sin x)/x conceptually using a table of values
  • A5.2 Find dy/dx for y = 4x⁴ − 2x² + 9
  • A5.3 Find the mode of the data set: 2, 3, 3, 5, 7, 3, 8, 5
  • A5.4 Two coins are tossed. Find the probability of getting at least one head.
  • A5.5 A particle's position is s(t) = t² − 4t. Find its velocity at t = 3

Textbooks & Links

Unit Material

U6

Integral Calculus

4 hrs · Coordinators: Mr. Akhil, Mr. Raghuram

Topics Covered

  • Integration as the reverse process of differentiation
  • Basic rules of integration: power, sum and constant‑multiple rules
  • Indefinite integrals of standard functions
  • Definite integrals and the Fundamental Theorem of Calculus
  • Area under a curve using definite integrals

Learning Outcomes

  • Evaluate indefinite integrals of polynomial and standard functions
  • Apply basic integration rules confidently
  • Evaluate definite integrals using the Fundamental Theorem of Calculus
  • Compute the area under a curve between given limits

Session Plan

SessionDurationFocusIn‑class Activity
S172 hrsIndefinite integration & standard integralsGuided integration practice
S182 hrsDefinite integrals & area under a curveArea‑computation workshop

In‑class Practice Problems

  • P6.1 Integrate ∫(3x² − 4x + 5) dx
  • P6.2 Integrate ∫(1/x) dx and ∫eⁿ dx
  • P6.3 Evaluate ∫₀² (x² + 1) dx
  • P6.4 Find the area bounded by y = x² and the x‑axis between x = 0 and x = 3

Assignment 6 · Final take‑home · Due before consolidation session

  • A6.1 Evaluate ∫(4x³ − 6x + 2) dx
  • A6.2 Evaluate ∫₁³ (2x + 1) dx
  • A6.3 Find the area enclosed between y = 4 − x² and the x‑axis
  • A6.4 Integrate ∫(sin x + cos x) dx
  • A6.5 If dy/dx = 3x² − 2 and y(0) = 5, find y(x)

Textbooks & Links

Unit Material

Evaluation

How the course is assessed

The course is graded formatively rather than through a single high‑stakes exam, in keeping with its purpose: building durable fluency, not testing recall under pressure.

Attendance & class participation10%
In‑class problem sets20%
Unit assignments (6, best 5 counted)40%
Final consolidation assessment30%

Grading note

Students completing the programme with a passing standard receive a certificate of completion recording it as a value‑added course. Assignments are reviewed with worked solutions in the following session, and resubmission is permitted once per unit.

Reference Library

Textbooks & further reading

Core references for the programme, alongside open, freely accessible platforms students can use for extra practice outside class.

NCERT Mathematics, Classes IX–XII

National Council of Educational Research and Training

Primary reference for the full syllabus; free to download.

ncert.nic.in →

Higher Algebra

H. S. Hall & S. R. Knight

Classic reference for Units 1–2 — algebraic manipulation and equations.

Plane Trigonometry, The Elements of Coordinate Geometry

S. L. Loney

Standard reference for Unit 3, 4, with extensive graded problem sets.

Avanti Sankalp Program

Avanti Fellows

Lecture slides for mathematics.

sankalp.avantifellows.org →

Paul's Online Math Notes

Lamar University

Free, thorough notes spanning algebra through calculus.

tutorial.math.lamar.edu →

MIT OpenCourseWare 18.01

Massachusetts Institute of Technology

Full lecture series for students who want to go further into calculus.

ocw.mit.edu →
Enrolment

Join the bridge programme

Open to all incoming and first‑year students, regardless of stream. No prior calculus is assumed — only a willingness to revisit the basics carefully. Sessions run in small groups to keep the pace responsive to the room.

  • Duration28 contact hours + review
  • FormatIn‑person
  • EligibilityOpen to all incoming UG students
  • PrerequisitesNone
  • CertificationValue‑added course certificate
  • CoordinatorProf. N Uday Kiran,
    Dr. D Bhanu Prakash(Webpage)