
This session will help students to learn definition of determinants. How to evaluate and how to solve a determinant. Assignment for self study is also given at the end of session.
Define matrices and explain their basic properties. Classify them into rectangular and square forms, including symmetric and skew-symmetric types.
Practice solving systems of linear equations using a matrix approach to find x, y, and z from augmented matrices.
Explore the transpose of a matrix, including calculating X^T, understanding symmetric properties, and applying matrix operations to express and verify relationships in order-3 matrices.
Learn to find the inverse of a matrix using minors and the transpose approach, with step-by-step practice and explanations.
Introduction to partial fractions. Proper and improper fractions. Resolving simple questions to partial fraction.
a) Denominator with multiplier 'x'
b) 'ax + b' type denominator
Special functions like exponential, logarithmic and trigonometric etc.
Various methods of factorization.
To resolve proper fractions by factorization of the denominator.
Expansion of the term (a2 - b2)
Resolving to partial fraction with similar denominators
To resolve proper fraction where denominator contains repeated linear factors
Discover irreducible factors and how to identify expressions that cannot be reduced further. Practice factoring polynomials like x^2 − x and x^2 + 1, using substitution and simplification techniques.
Explore resolving improper fractions through division and expressing the result. Factor x^2-1 into (x-1)(x+1) and express the fraction as a sum of simpler terms.
Definition of Logarithm is explained with example and introduced what it means . Logarithm and exponential forms are inter convertible . How to convert log form into exponential form and vice a versa .
Evaluation of logarithm without using log tables explained with examples .
Solving logarithmic numerical without using log tables or calculators using log formulas
Learn to solve for x by factoring equations and setting each factor to zero to find all possible x values.
Solve for x using exponential and logarithmic techniques, isolate x via shifting and algebraic manipulation, and approximate solutions when exact forms with base e are encountered.
Explore the change of base formula to convert logarithms from one base to another, including shifting to base e and using reciprocal relationships to simplify expressions.
Learn to apply the binomial theorem to expand (a+b)^n, substitute values for a, b, and n, and derive the coefficients and terms step by step.
Explore how to expand (1+x)^n and (1−x)^n with the binomial theorem, analyze sign patterns, and use small-x approximations to drop higher-order terms for practical calculations.
Apply the binomial theorem to evaluate (1+x)^n and (1-x)^n numericals, highlighting sign patterns and consistent treatment of terms a and b.
Discover how to find the nth term in a binomial expansion using the binomial coefficient nCr and the general term formula, with worked examples.
Master the middle term in the expansion of (a+b)^n for even n using binomial expansion, and apply key concepts from basic mathematics.
Learn to find the coefficient of any term in a binomial expansion by using binomial coefficients and selecting the correct indices.
Explore numericals based on fundamental identities, using step-by-step reasoning to simplify expressions involving sine, cosine, and related identities.
Explore numericals on allied angles by applying unit-circle rules, calculating sine values for angles like 30, 45, 60, and their offsets of 180 or 360, with correct quadrant sign explanations.
This lecture demonstrates numericals on tan rules of compound angles, derives tan(a+b) and tan(a−b) identities, and applies them to compute values using x and y.
Learn factorization and defactorization formulae, master sign rules for sums and differences, and practice applying these formulas to solve questions using variables like C, B, and D.
Explore and apply factorization and defactorization formulae, including sine and cosine addition and subtraction rules, to simplify expressions and work with numerators and denominators.
Apply factorization and defactorization formulae to simplify trigonometric expressions, use A±B identities, substitute values, and derive relationships through worked examples and practice.
Master inverse trigonometry concepts by working with trigonometric formulas and functions, manipulating algebraic expressions, and using roots and fractions to solve practical problems.
Explore inverse trigonometry by relating sine, cosine, and other trig expressions using identities, plus and minus forms, and cross-multiplication to solve problems.
Hi, this course of mathematics covers all the required topics for applied math right from basics to advance. This course can be taken by any aspiring student of science, engineering, business, computer science, and industry.
Every lecture is presented as a classroom teaching, so that students can relate to it easily. Each topic is explained in details. Representative examples of each topic are solved step-wise with detailed explanation. Home assignments are given with answer keys for self study.