1. Mathematical Logic
Content:
Introduction to logical statements, connectives, and truth tables.
Objective:
To develop the ability to analyze and interpret logical statements and
construct truth tables for different logical connectives.
2. Matrices
Content:
Study of matrices, types of matrices, operations on matrices, and finding
determinants.
Objective:
To understand the concept of matrices and determinants and apply matrix algebra
to solve system of linear equations.
3. Trigonometric Functions
Content:
Study of trigonometric identities, functions, and inverse trigonometric functions.
Objective:
To explore the properties of trigonometric functions and use them in solving
equations and modeling periodic phenomena.
4. Pair of Straight Lines
Content:
Study of equations representing a pair of straight lines, their angle of
intersection, and condition for concurrency.
Objective:
To develop analytical skills in solving problems involving two intersecting
lines and their geometric properties.
5. Vectors
Content:
Introduction to vector algebra, vector addition, scalar multiplication, and dot
and cross products.
Objective:
To understand vector operations and their applications in geometry, mechanics,
and physics.
6. Line and Plane
Content:
Study of lines and planes in 3D space, equations of lines and planes, and their
intersections.
Objective:
To develop the ability to solve geometric problems in three dimensions
involving lines and planes.
7. Linear Programming
Content:
Introduction to linear programming problems (LPP), graphical methods, and
optimization techniques.
Objective:
To solve optimization problems in reallife situations involving constraints and
maximize or minimize Objective
functions.
8. Differentiation
Content:
Study of derivatives, differentiation rules, and higher order derivatives.
Objective:
To understand the concept of differentiation and apply it to solve problems in
calculus and realworld applications.
9. Applications of Derivatives
Content:
Application of derivatives in finding maxima and minima, rate of change, and
tangents and normals to curves.
Objective:
To apply derivatives in solving practical problems like optimization and
analyzing the behavior of functions.
10. Indefinite Integration
Content:
Study of integration as the inverse process of differentiation, and methods of
indefinite integration.
Objective:
To understand the concept of indefinite integration and apply it in solving
problems related to finding general solutions to differential equations.
11. Definite Integration
Content:
Study of definite integrals, properties of definite integrals, and evaluation techniques.
Objective:
To solve problems involving definite integrals and use them in reallife
applications such as finding areas under curves.
12. Application of Definite Integration
Content:
Applications of definite integrals in finding areas, volumes of revolution, and
solving problems in geometry and physics.
Objective:
To apply definite integration in calculating areas between curves and solving
practical problems in various fields.
13. Differential Equations
Content:
Study of ordinary differential equations, methods of solving first order and higher
order differential equations.
Objective:
To understand and solve differential equations, and apply them to model
physical phenomena and dynamic systems.
14. Probability Distributions
Content:
Introduction to probability distributions, including discrete and continuous
distributions, and expected value.
Objective:
To analyze various probability distributions and apply them to realworld
situations involving uncertainty and risk.
15. Binomial Distribution
Content:
Study of the binomial distribution, its properties, and applications.
Objective:
To understand the binomial distribution and use it to solve problems involving
trials with two outcomes (success/failure).