Course Outcomes
Department of Mathematics
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B.Sc.
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Sr. No.
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Program Specific Outcome
By the end of this program, the students will be able to:
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PSO 1
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Analyze basic concepts of Mathematics.
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PSO 2
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Discover applications of pure and applied subjects.
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PSO 3
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Solve problems in competitive related to logic and aptitude.
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PSO 4
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Form and find a solution through mathematical modeling related to real world
phenomenon.
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PSO5
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Eligible for specific government post related with mathematics.
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Program Name – B.Sc. I
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Course Name/ paper
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Course Outcome
By the end of each of the following course, the students will be able to:
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Paper I – Differential Calculus
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CO 1: Understand De Moivre's Theorem and its applications. CO 2: Solve hyperbolic equations using its properties.
CO 3: Find successive differentiation and its applications.
CO 4: Analyze concept of partial differentiation with some properties and its applications to maxima and minima.
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Paper II - Calculus
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CO 1: Apply MVT to study properties of functions
CO2: Find Taylors and Maclaurins series expansion of functions.
CO 3: Understand L’Hospital Rule and its applications to evaluate limits. CO 4: Discover properties of continuous function.
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Paper III – Differential Equations
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CO 1: Formation of differential equations.
CO2: Solve first order differential equations and its application to find orthogonal trajectories.
CO 3: find a solution of first order higher degree equations.
CO 4: Solve linear differential equations with constant coefficients and homogeneous differential equations.
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Paper IV –
Higher order ordinary differential equations and partial order differential equations
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CO 1: Apply different methods to solve second order differential equations. CO 2: Solve total differential equation.
CO3: Solve ordinary simultaneous differential equations.
CO4: Form, Categorize partial differential equations and solve PDE using Charpits method.
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Practical Course: CCPM –I
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CO 1: Apply Leibnitz’s theorem, Euler’s theorem and De Moivre’s Theorem to solve problems.
CO 2: Analyse Maxima and Minima of functions of two variables and trace curves in polar form.
CO 3: Solve problems related to radius of curvature. curve, parametric and polar curve.
CO 4: Apply Lagrange’s Mean Value theorem, Cauchy’s Mean Value theorem and Hospital Rule.
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Program Name – B.Sc. II
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Course Name/ paper
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Course Outcome
By the end of each of the following course, the students will be able to:
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Paper V Analysis- I
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CO 1: Analyze functions and its properties.
CO 2: Apply mathematical induction to derive specific formulae related to integers. CO 3: Understand the basic ideas countibility of sets.
CO 4: Analyse order properties of real numbers, completeness property and the
Archimedean property.
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Paper VI Algebra- I
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CO 1: Understand properties of matrices.
CO 2: Solve System of linear homogeneous equations and linear non-homogeneous equations.
CO 3: Extract eigen values and eigen vectors.
CO 4: Verify different binary structures and their properties.
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Paper VII – Real Analysis II
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CO 1: Understand the concepts and different structures, properties of sequence and subsequence of real numbers .
CO 2: Make use of different properties to check the convergence of sequence. CO 3: Analyze series of real numbers with properties.
CO 4: Make use of different type test to study convergence of series.
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Paper VIII Algebra - II
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CO 1: Make use of Lagrange’s theorem to study subgroup. CO 2: Make use of Fermat’s theorem to find remainder.
CO 3: Explore properties of normal subgroups, factor group.
CO 4: Form homomorphism and isomorphisms.
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Practical Course II CCPM - II
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CO 1: Solve problems on Eigen values, Eigen vectors and Cayley Hamilton theorem. CO 2: Analyse functions and apply Mathematical Induction.
CO 3: Discover convergence of series using Comparison test Cauchy’s root test, D’ Alembert’s ratio test and Rabbi’s test.
CO 4: Understand group, cyclic subgroup, permutation group and homomorphism and Kernel.
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Practical Course III CCPM - III
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CO 1: Understand basic concepts in scilab programming and use Scilab as a calculator.
CO 2: Use looping structures in Scilab programming.
CO 3: Solve linear equations by Gauss Elimination, Gauss Jordan methods.
CO 4: Solve linear differential equations by Euler, Euler modified, Runge Kutta 2nd and 4th order methods.
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Program Name – B.Sc. III
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Course Name/ paper
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Course Outcome
By the end of each of the following course, the students will be able to:
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Paper IX – Mathematical Analysis
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CO 1: Understand and learn about Riemann integration. CO 2: Find Riemann integral of special types of functions. CO 3: Solve improper integrals of different types.
CO 4: Find Fourier series expansion of given functions over given interval.
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Paper X– Algebra
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CO 1: Understand concepts of group and rings.
CO 2: Analyze the different structures of Groups and Rings.
CO 3: Understand the different fundamental theorems and its applications.
CO 4: Understand the concepts of polynomial rings, unique factorization domain.
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Paper XI – Optimization Techniques
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CO 1: Understand range of operation research models and techniques, which can be applied to a variety of industrial and real-life applications.
CO 2: Formulate and apply suitable methods to solve problems.
CO 3: Identify and select procedures for various sequencing, assignment, transportation problems.
CO 4: Identify and select suitable methods for various games.
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Paper XII – Integral Transforms
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CO 1: Understand the concept of Laplace Transform.
CO 2: Apply properties of Laplace Transform to solve differential equations. CO 3: Understand the relation between Laplace and Fourier Transform.
CO 4: Apply infinite and finite Fourier Transform to solve real life problems.
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Paper XIII – Metric Spaces
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CO 1: Form different types of metric space.
CO 2: Understand the basic concepts of Open sets, Closed sets and connectedness, completeness and compactness of metric spaces.
CO3: Define homeomorphism to study properties of metric spaces. CO 4: Apply knowledge to study Banach and Hilberts spaces.
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Paper XIV – Linear Algebra
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CO 1: Form different vector spaces and subspaces. CO 2: Form different norm linear space.
CO 3: Analyse the concept of linear transformation and connection between linear transformation and matrices.
CO 4: Apply concepts of eigenvalues, eigen vectors and its connection with real life situations.
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Paper XV – Complex Analysis
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CO 1: Understand basic concepts and theorems related to functions of complex variable, its differentiability and integrability.
CO 2: Form an analytic functions.
CO 3: Evaluate complex integration and differentiations.
CO 4: Evaluate real integrals using Cauchy residue theorems.
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Paper XVI – Discrete Mathematics
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CO 1: Understand classical notations of logic: implications, equivalence, negation, proof by contradiction, proof by induction, and quantifiers.
CO 2: Apply notions in logic in other branches of Mathematics.
CO 3: Analyze elementary algorithms: searching algorithms, sorting, greedy algorithms, and their complexity.
CO 4: apply concepts of graphs and trees to tackle real situations.
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Practical Course IV
CCPM – IV
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CO 1: Use Graphical method for linear programming problems. CO 2: Solve Transportation Problems.
CO 3: Solve Assignment Problems. CO 4: Solve game strategies problems.
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Practical Course V CCPM – V
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CO 1: Find Laplace transforms of elementary functions.
CO 2: Evaluate integrals using properties of Laplace transform. CO 3: Find Laplace transforms of integrals and periodic functions. CO 4: Find Inverse Laplace by using standard results.
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Practical Course VI
CCPM – VI
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CO 1: Understand basic Python programming.
CO 2: Solve systems of linear algebraic equations using Python programming. CO 3: Solve Initial Value Problems using Python programming.
CO 4: Analyze data using Python Libraries.
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Practical Course VII
CCPM – VII
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CO 1: Read, collect, understand the culture of Mathematics. CO 2: Understand historic development of mathematics.
CO 3: Understand the new concept of mathematics, innovations. CO 4: Analyze relevance of Mathematics.
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