1. Relations and
Functions
Content: This chapter covers the concept of relations and
functions, types of relations (reflexive, symmetric, transitive, and
equivalence), types of functions (one one, onto, etc.), and their composition
and inverses.
Objective: Understand the definitions, types, and properties of
relations and functions. Learn how to compose functions and find the inverse of
a function.
2. Inverse Trigonometric Functions
Content: Focuses on inverse trigonometric functions, their
properties, and the principal values of inverse trigonometric functions.
Objective: Gain knowledge about the domain, range, and principal
values of inverse trigonometric functions. Use these functions to solve
equations.
3. Matrices
Content: Introduction to matrices, their types, operations on
matrices (addition, multiplication, and transpose), and the properties of these
operations. Special types of matrices like the identity matrix are also
discussed.
Objective: Understand the types, properties, and operations of
matrices. Learn how to solve matrix equations and use matrices in various
mathematical applications.
4. Determinants
Content: This chapter covers the definition and properties of
determinants, their evaluation, and the application of determinants to solve
systems of linear equations using Cramer’s rule.
Objective: Develop a thorough understanding of determinants and
their properties, and learn to apply them in solving systems of equations.
5. Continuity and Differentiability
Content: Discusses the concepts of continuity, differentiability,
the derivatives of various functions, and their applications. The chapter also
introduces higher order derivatives and the chain rule.
Objective: Learn how to check the continuity and differentiability
of functions. Master the application of derivatives in solving various
problems, including rate of change.
6. Application of Derivatives
Content: Focuses on the application of derivatives in finding the
rate of change of quantities, tangents and normal to curves, increasing and
decreasing functions, maxima and minima, and approximation.
Objective: Understand the realworld applications of derivatives in
determining the behavior of functions and solving optimization problems.
7. Integrals
Content: Covers the concept of integration as the inverse of
differentiation, methods of integration, definite and indefinite integrals, and
properties of definite integrals.
Objective: Master techniques of integration and apply integrals in
solving problems involving areas and volumes.
8. Application of Integrals
Content: Discusses the applications of integrals in finding areas
under curves, areas between curves, and calculating volumes of solids of
revolution.
Objective: Learn how to use integrals to compute areas and volumes
in different geometric contexts.
9. Differential Equations
Content: Introduces differential equations, their formation, order,
and degree, along with methods for solving them. It covers general and
particular solutions of differential equations.
Objective: Understand how to form and solve differential equations,
and apply them to model realworld phenomena.
10. Vector Algebra
Content: This chapter deals with vectors in three dimensional
space, their addition, subtraction, and multiplication (scalar and vector
products), and their properties.
Objective: Develop a solid understanding of vector operations and
their applications in physics and engineering.
11. Three Dimensional Geometry
Content: Focuses on the geometry of three dimensional space,
including the equation of a line, plane, and the shortest distance between two
lines and a point.
Objective: Learn to solve geometrical problems involving lines,
planes, and distances in three dimensional space.
12. Linear Programming
Content: Introduces the concept of linear programming, formulation
of linear programming problems, and methods for solving them graphically.
Objective: Learn how to formulate and solve optimization problems
using linear programming techniques.
13. Probability
Content: This chapter explores the concept of conditional
probability, the multiplication theorem, independent events, and Bayes'
theorem. It also covers random variables and probability distributions,
including the binomial distribution.
Objective: Gain a deep understanding of probability theory and
apply it in solving real world problems involving randomness and uncertainty.