Statistics CO

 

UNION CHRISTIAN COLLEGE, ALUVA

COURSE PLAN ( 2021 – 2022 )

Department MATHEMATICS
Name of Faculty
Programme Name B.Sc MATHS & B.Sc PHYSICS
Level of study UG
Semester FIRST
Course Name/Subject Name DESCRIPTIVE STATISTICS
Total Hours  72

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Define and use the basic terminology of statistics. To get them equipped with different statistical presentation of data. To explain the statistical concept of census and sampling. Analyse and compare different Sampling methods. Assignment, Test
CO2 Calculate and interpret the various measures of central tendency and dispersion. To get them equipped with different statistical presentation of data. Assignment, Test
CO3 To acquire the knowledge about the characteristics of a distribution such as moments, skewness and kurtosis. Assignment, Test
CO4 To understand the characteristics and properties of Index numbers. Assignment, Test

 

Module 1 Hours : 20
Syllabus:

DIFFERENT ASPECTS OF DATA, AND ITS COLLECTION

Statistics as collected facts and figures, and as a science for extracting information from data. Concepts of a statistical population and sample. Different types of characteristics and data qualitative and quantitative, cross sectional and time-series, discrete and continuous, frequency and non-frequency. Different types of scale- nominal and ordinal, ratio and interval. Collection of data-census and sampling. Different types of random samples- simple random sample, systematic, stratified and cluster sampling.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Statistics as collected facts and figures, and as a science for extracting information from data. Concepts of a statistical population and sample. 4 Lecture, PPT
2 CO1 Different types of characteristics and data qualitative and quantitative, cross sectional and time-series, discrete and continuous, frequency and non-frequency. 6 Lecture, PPT
3 CO1 Different types of scale- nominal and ordinal, ratio and interval. 3 Lecture, PPT
4 CO1 Collection of data-census and sampling. Different types of random samples- simple random sample, systematic, stratified and cluster sampling.

 

7 Lecture, PPT
Module 2 Hours : 20
Syllabus:

CENTRAL TENDENCY AND DISPERSION

Averages- Arithmetic Mean, Median, Mode, Geometric Mean, Harmonic Mean and Weighted averages.  Absolute Measures of dispersion- Range, Quartile Deviation, Mean Deviation and Standard Deviation. Combined mean and standard deviation, C.V, relative measures of dispersion, Ogives and Box plot.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Averages- Arithmetic Mean, Median, Mode, Geometric Mean, Harmonic Mean and Weighted averages. 8 Lecture, Problem solving
2 CO2 Absolute Measures of dispersion- Range, Quartile Deviation, Mean Deviation and Standard Deviation. Combined mean and standard deviation, C.V, relative measures of dispersion 10 Lecture, Problem solving
3 CO2 Ogives and Box plot. 2 Lecture, PPT, Problem solving
Module 3 Hours : 15
Syllabus:

Moments, Skewness and Kurtosis

Raw moments, central moments and their inter relations. Skewness- Pearson’s, Bowly’s and moment measures of skewness. Kurtosis- percentile and moment measure of kurtosis.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Raw moments, central moments and their inter relations. 6 Lecture, Problem solving
2 CO3 Skewness- Pearson’s, Bowly’s and moment measures of skewness. 5 Lecture, Problem solving
3 CO3 Kurtosis- percentile and moment measure of kurtosis. 4 Lecture, Problem solving
Module 4 Hours : 17
Syllabus:

INDEX NUMBERS

Definition of Index Numbers. Price Index Numbers. Price Index Numbers as Simple (A. M., G. M.) and Weighted averages (A. M.) of price relatives. Weighted averages (A. M.) of price. Laspeyer’s, Paasche’s and Fisher’s Index Numbers. Time-Reversal and Factor-Reversal tests. Cost of living index numbers-family budget and aggregate expenditure methods. An introduction to Whole sale Price Index and Consumer Price Index.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO4 Definition of Index Numbers. Price Index Numbers. Price Index Numbers as Simple (A. M., G. M.) and Weighted averages (A. M.) of price relatives. 5 Lecture, Problem solving
2 CO4 Weighted averages (A. M.) of price. Laspeyer’s, Paasche’s and Fisher’s Index Numbers. 4 Lecture, Problem solving
3 CO4 Time-Reversal and Factor-Reversal tests. 4 Lecture, Problem solving
4 CO4 Cost of living index numbers-family budget and aggregate expenditure methods. 2 Lecture, Problem solving
5 CO4 An introduction to Whole sale Price Index and Consumer Price Index. 2 Lecture, Problem solving

 

Department MATHEMATICS
Name of Faculty
Programme Name B.Sc MATHS & B.Sc PHYSICS
Level of study UG
Semester SECOND
Course Name/Subject Name PROBABILITY THEORY
Total Hours 72

 

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Define the basic rules and concepts of probability. Solve the problems in probability. Assignment, Test
CO2 Explain the concepts of random variables. Differentiate the ideas between discrete and continuous random variables. Evaluation of conditional probabilities and unconditional probabilities. Solving problems using change of variables. Assignment, Test
CO3 Explain the concept of a two-component random vector. Analyse the bivariate random variable using p.d.f, c.d.f, marginal and conditional probability, independence. Assignment, Test
CO4 To understand the concept of scatter diagram. Differentiate the ideas between correlation and regression, Identification of regression lines. Assignment, Test

 

Module 1 Hours : 20
Syllabus:

PROBABILITY

Random experiments. Complement, union and intersection of events and their meaning, Mutually exclusive, equally likely and Independent events. Classical, frequency and Axiomatic approaches to probability. Monotone property, Addition theorem (up to 3 events) .Conditional probability. Multiplication theorem (up to 3 events). Independence of events. Baye’s theorem.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Random experiments. Complement, union and intersection of events and their meaning, Mutually exclusive, equally likely and Independent events. 5 Lecture, PPT, Problem solving
2 CO1 Classical, frequency and Axiomatic approaches to probability. 4 Lecture, Problem solving
3 CO1 Monotone property, Addition theorem (up to 3 events) 3 Lecture, PPT, Problem solving
4 CO1 Conditional probability. Multiplication theorem (up to 3 events). Independence of events. Baye’s theorem. 8 Lecture, PPT, Problem solving
Module 2 Hours : 17
Syllabus:

PROBABILITY DISTRIBUTION OF UNIVARIATE RANDOM VARIABLES

Concept of random variables. Discrete and continuous random variables. Probability mass and density functions and cumulative distribution functions. Evaluation of conditional probabilities. Evaluation of unconditional probabilities. Change of variables- methods of Jacobian and cumulative distribution function (one variable case).

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Concept of random variables. Discrete and continuous random variables. 2 Lecture, Problem solving
2 CO2 Probability mass and density functions and cumulative distribution functions. 6 Lecture, Problem solving
3 CO2 Evaluation of conditional probabilities. Evaluation of unconditional probabilities. 6 Lecture, Problem solving
4  

CO2

Change of variables- methods of Jacobian and cumulative distribution function (one variable case). 3 Lecture, Problem solving
Module 3 Hours : 15
Syllabus:

PROBABILITY DISTRIBUTION OF BIVARIATE RANDOM VARIABLES

Concept of a two-component random vector. Bivariate probability mass and density functions. Marginal and conditional distributions. Independence of Bivariate random variables.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Concept of a two-component random vector. 2 Lecture, Problem solving
2 CO3 Bivariate probability mass and density functions. 5 Lecture, Problem solving
3 CO3 Marginal and conditional distributions. 5 Lecture, Problem solving
4 CO3 Independence of Bivariate random variables. 3 Lecture, Problem solving
Module 4 Hours : 20
Syllabus:

CORRELATION AND REGRESSION

Bivariate data types of correlation. Scatter diagram. Karl Pearson’s product- moment and spearman’s rank correlations coefficients. Regression equations- fitting of polynomial equations of degree one and two; exponential curve. Two types of regression curves, Identification of regression equations.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO4 Bivariate data types of correlation. Scatter diagram. 3 Lecture, PPT
2 CO4 Karl Pearson’s product- moment and spearman’s rank correlations coefficients. 5 Lecture, Problem solving
3 CO4 Regression equations- fitting of polynomial equations of degree one and two; exponential curve. 6 Lecture, Problem solving
4 CO4 Two types of regression curves, Identification of regression equations.

 

6 Lecture, Problem solving

 

Department MATHEMATICS
Name of Faculty
Programme Name B.Sc MATHS & B.Sc PHYSICS
Level of study UG
Semester THIRD
Course Name/Subject Name PROBABILITY DISTRIBUTIONS
Total Hours 90

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Explain the concept and illustrate the different aspects of mathematical expectation Assignment, Test
CO2 To understand the applications of discrete and continuous probability distributions in day to day life and to solve the problems. Assignment, Test
CO3 Describe the Chebychev’s inequality, Weak Law of Large Numbers and  Bernoulli’s Law of Large Numbers and to explain Central Limit Theorem. Assignment, Test
CO4 Identify the different sampling distributions. Discuss their properties and relation among them. Assignment, Test

 

Module 1 Hours : 20
Syllabus:Mathematical expectation

Expectation of random variables and their functions. Definition of – Raw moments, central moments and their interrelation, A.M, G.M, H.M, S.D, M.D., covariance, Pearson’s correlation coefficient in terms of expectation. MGF and characteristic function and simple properties. Moments from mgf.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Expectation of random variables and their functions. 4 Lecture, PPT, Problem solving
2 CO1 Definition of – Raw moments, central moments and their interrelation, A.M, G.M, H.M, S.D, M.D., covariance, Pearson’s correlation coefficient in terms of expectation. 10 Lecture, PPT, Problem solving
3 CO1 MGF and characteristic function and simple properties. Moments from mgf. 6 Lecture, PPT, Problem solving
Module 2 Hours : 25
Syllabus:Standard probability distributions

Uniform (discrete/continuous), Bernoulli, binomial, Poisson, Geometric, hyper-geometric, exponential, gamma- one and two parameter(s), beta (type I and type II) – mean, variance, mgf, additive property, lack of memory property. Normal distribution with all properties.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Uniform (discrete/continuous), Bernoulli, binomial, Poisson, Geometric, hyper-geometric, exponential, gamma- one and two parameter(s), beta (type I and type II) – mean, variance, mgf, additive property, lack of memory property. 20 Lecture, PPT, Problem solving
2 CO2 Normal distribution with all properties. 5 Lecture, PPT, Problem solving
Module 3 Hours : 20
Syllabus:Law of large numbers and central limit theorem

Chebychev’s inequality. Weak Law of Large Numbers -Bernoulli’s and chebychev’s form. Central Limit Theorem (Lindberg- Levy form with proof)

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Chebychev’s inequality. 6 Lecture, PPT, Problem solving
2 CO3 Weak Law of Large Numbers -Bernoulli’s and chebychev’s form. 8 Lecture, PPT, Problem solving
3 CO3 Central Limit Theorem (Lindberg- Levy form with proof) 6 Lecture, PPT, Problem solving
Module 4 Hours : 25
Syllabus:Sampling distributions

Concept of sampling from a probability distribution. i.i.d observations. Concept of sampling distributions. Statistic(s) and standard error(s). Mean and variance of sample mean when sampling is from a finite population. Sampling distribution of mean and variance from Normal distribution. Chi-square distributions. Student’s   t distribution. Snedecor’s F distribution and statistics following these distributions. Relation among Normal, Chi-square, t and F distributions.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO4 Concept of sampling from a probability distribution. i.i.d observations. Concept of sampling distributions. Statistic(s) and standard error(s). 7 Lecture, PPT, Problem solving
2 CO4 Mean and variance of sample mean when sampling is from a finite population. 5 Lecture, PPT, Problem solving
3 CO4 Sampling distribution of mean and variance from Normal distribution. 5 Lecture, PPT, Problem solving
4 CO4 Chi-square distributions. Student’s   t distribution. Snedecor’s F distribution and statistics following these distributions. Relation among Normal, Chi-square, t and F distributions. 8 Lecture, PPT, Problem solving

 

Department MATHEMATICS
Name of Faculty
Programme Name B.Sc MATHS & B.Sc PHYSICS
Level of study UG
Semester FOURTH
Course Name/Subject Name STATISTICAL INFERENCE
Total Hours 90

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Explain the concept of estimation of parameters. Calculate the problems related to point estimation. To acquire the knowledge about the properties of good estimators. Assignment, Test
CO2 To discuss the methods of estimation and solve the problems related to interval estimation. Assignment, Test
CO3 Explain the concepts of Testing of Hypotheses. Hypothesize various advanced statistical techniques for modeling and exploring practical situations. Solve the problems related to Testing of Hypotheses (Large Sample Tests) Assignment, Test
CO4 Solve the problems related to Testing of Hypotheses (small sample test) Assignment, Test

 

Module 1 Hours : 25
Syllabus:Point estimation

Concepts of Estimation, Estimators and Estimates. Point estimation and Interval estimation. Properties of good estimators; unbiasedness, Efficiency, Consistency and Sufficiency. Factorization theorem (statement).

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Concepts of Estimation, Estimators and Estimates. Point estimation and Interval estimation. 10 Lecture, PPT, Problem solving
2 CO1 Properties of good estimators; unbiasedness, Efficiency, Consistency and Sufficiency. 12 Lecture, PPT, Problem solving
3 CO1 Factorization theorem 3 Lecture, PPT, Problem solving
Module 2 Hours : 20
Syllabus:Methods of estimation and  interval estimation

Method of moments. Method of maximum likelihood. Invariance property of ML Estimators. Method of minimum variance. Cramer-Rao inequality (statement only) confidence intervals for mean, variance and proportions.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Method of moments. Method of maximum likelihood. Invariance property of ML Estimators. Method of minimum variance. 12 Lecture, PPT, Problem solving
2 CO2 Cramer-Rao inequality (statement only) confidence intervals for mean, variance and proportions. 8 Lecture, PPT, Problem solving
Module 3 Hours : 25
Syllabus:Testing of hypotheses, large sample tests

Statistical hypotheses, null and alternate hypotheses. Simple and composite hypotheses, Type-I and type-II errors. Critical Region. Size and power of a test, p-value. Neyman-Pearson approach. Large sample tests – z-tests for means, z-tests for difference of means, z-tests for proportion, z-tests for difference of proportion. Chi-square tests for independence, homogeneity.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Statistical hypotheses, null and alternate hypotheses. Simple and composite hypotheses 4 Lecture, PPT
2 CO3 Type-I and type-II errors. Critical Region. Size and power of a test, p-value. 5 Lecture, PPT, Problem solving
3 CO3 Neyman – Pearson approach. 1 Lecture, PPT
4 CO3 Large sample tests – z-tests for means, difference of means 5 Lecture, PPT, Problem solving
5 CO3 Large sample tests – proportion and difference of proportion 5 Lecture, PPT, Problem solving
6 CO3 Chi – square tests for independence, homogeneity. 5 Lecture, PPT, Problem solving
Module 4 Hours : 20
Syllabus:Small sample tests

Normal tests for mean, (when o known). Normal tests for difference of means (when o known). Normal tests for proportion (when o known). t-tests for means (when o unknown), t-tests for difference of means (when o unknown), paired t-test ,test for proportion(binomial), chi-square test. F-test for ratio of variances.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO4 Normal tests for mean, difference of means and proportion (when σ known) 6 Lecture, PPT, Problem solving
2 CO4 t-tests for mean and difference of means (when σ unknown) 4 Lecture, PPT, Problem solving
3 CO4 paired t-test 2 Lecture, PPT, Problem solving
4 CO4 test for proportion (binomial) 2 Lecture, PPT, Problem solving
5 CO4 Chi – square test for variance, F-test for ratio of variances. 6 Lecture, PPT, Problem solving

 

Department MATHEMATICS
Name of Faculty SWATHY K. N
Programme Name B.Sc PSYCHOLOGY
Level of study UG
Semester FIRST
Course Name/Subject Name BASIC STATISTICS
Total Hours 55

 

Course Outcomes

CO Number Description CO Evaluation methods
CO1 To inculcate in students the need and importance of statistics in Psychology. Define and use the basic terminology of statistics. To get them equipped with different statistical presentation of data. Assignment, Test
CO2 To explain the statistical concept of census and sampling. Analyse and compare different Sampling methods. Assignment, Test
CO3 Calculate and interpret the various measures of central tendency. Assignment, Test

 

Module 1 Hours : 20
Syllabus:

Introduction to Statistics-Introduction to Statistics. Need and importance of Statistics in Psychology. Variables and attributes, Levels of Measurement: Nominal, Ordinal, Interval and Ratio. Collection of data-primary and secondary, census and sampling, classification and tabulation, grouped and ungrouped frequency table. Diagrammatical and graphical representation of data- bar diagram, pie diagram, frequency polygon and curve, histogram, ogives.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Introduction to Statistics-Introduction to Statistics. Need and importance of Statistics in Psychology. 3 Lecture, PPT
2 CO1 Variables and attributes, Levels of Measurement: Nominal, Ordinal, Interval and Ratio. 3 Lecture, PPT
3 CO1 Collection of data-primary and secondary, census and sampling, classification and tabulation, grouped and ungrouped frequency table. 6 Lecture, PPT
4 CO1 Diagrammatical and graphical representation of data- bar diagram, pie diagram, frequency polygon and curve, histogram, ogives. 8 Lecture, PPT, Problem solving
Module 2 Hours : 15
Syllabus:

Census and Sampling. Different methods of sampling. Requisites of a good sampling method. Advantages of sampling methods. Simple random sampling, Stratified sampling. Systematic sampling.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Census and Sampling. Different methods of sampling. Requisites of a good sampling method. Advantages of sampling methods. 8 Lecture, PPT
2 CO2 Simple random sampling, Stratified sampling. Systematic sampling. 7 Lecture, PPT
Module 3 Hours : 20
Syllabus:

Measures of central tendency-mean, median and mode- properties, merits and Demerits.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Measures of central tendency 2 Lecture, PPT
2 CO3 Mean – properties, merits and Demerits 6 Lecture, Problem solving
3 CO3 Median – properties, merits and Demerits. 6 Lecture, Problem solving
4 CO4 Mode – properties, merits and Demerits. 6 Lecture, Problem solving

 

Department MATHEMATICS
Name of Faculty SWATHY K. N
Programme Name B.Sc PSYCHOLOGY
Level of study UG
Semester SECOND
Course Name/Subject Name STATISTICAL TOOLS
Total Hours 54

 

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Calculate and interpret the various measures of dispersion Assignment, Test
CO2 To acquire the knowledge about the characteristics of a distribution such as moments, skewness and kurtosis. Assignment, Test
CO3 To understand the concept of scatter diagram. Differentiate the ideas between correlation and regression, Identification of  the regression lines. Assignment, Test

 

Module 1 Hours : 17
Syllabus:

Measures of dispersion-Range, quartile deviation, Mean deviation, standard deviation-properties, merits and demerits, coefficient of variation.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Measures of dispersion 1 Lecture, PPT
2 CO1 Range – properties, merits and demerits 3 Lecture, Problem solving
3 CO1 Quartile deviation – properties, merits and demerits 4 Lecture, Problem solving
4 CO1 Mean deviation – properties, merits and demerits 4 Lecture, Problem solving
5 CO1

 

Standard deviation – properties, merits and demerits, coefficient of variation.

 

5 Lecture, Problem solving
Module 2 Hours : 20
Syllabus:

Raw Moments, Central Moments, Inter Relationships (First Four Moments), Skewness – Measures – Pearson, Bowley and Moment Measure, Kurtosis- Measures of Kurtosis – Moment Measure.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Raw Moments, Central Moments, Inter Relationships (First Four Moments) 8 Lecture, Problem solving
2 CO2 Skewness – Measures – Pearson, Bowley and Moment Measure 7 Lecture, Problem solving
3 CO2 Kurtosis- Measures of Kurtosis – Moment Measure.

 

5 Lecture, Problem solving
Module 3 Hours : 17
Syllabus:

Karl Pearson’s Coefficient of Correlation, Scatter Diagram, Interpretation of Correlation Coefficient, Rank Correlation, Regression, Regression Equation, Identifying the Regression Lines.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Scatter Diagram 2 Lecture, PPT
2 CO3 Interpretation of Correlation Coefficient, Karl Pearson’s Coefficient of Correlation, Rank Correlation 7 Lecture, Problem solving
3 CO3 Regression, Regression Equation, Identifying the Regression Lines.

 

8 Lecture, Problem solving

 

Department MATHEMATICS
Name of Faculty SWATHY K. N
Programme Name B.Sc PSYCHOLOGY
Level of study UG
Semester THIRD
Course Name/Subject Name PROBABILITY AND PROBABILITY DISTRIBUTIONS
Total Hours 54

 

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Define the basic rules and concepts of probability. Solve the problems in probability. Assignment, Test
CO2 Explain the concepts of random variables. Differentiate the ideas between discrete and continuous random variables. Analyse the discrete random variable using p.d.f, c.d.f, expectation, mean, variance Assignment, Test
CO3 To understand the applications of Binomial and Normal distributions in day to day life and psychological problems. Assignment, Test

 

Module 1 Hours : 17
Syllabus:

Probability: Basic concepts, different approaches, conditional probability, independence, addition theorem, multiplication theorem (without proof) for two events, simple examples.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Probability: Basic concepts 3 Lecture, PPT, Problem solving
2 CO1 Different approaches 3 Lecture, PPT, Problem solving
3 CO1 Addition theorem 1 Lecture, PPT, Problem solving
4 CO1 Conditional probability, independence, Multiplication theorem (without proof) for two events 10 Lecture, PPT, Problem solving
Module 2 Hours : 17
Syllabus:

Random variables, Discrete and Continuous, p.m.f and p.d.f., c.d.f of discrete r.v. Mathematical Expectation of a discrete r.v, Mean and Variance of a discrete r.v.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Random variables, Discrete and Continuous 1 Lecture, PPT
2 CO2 p.m.f and p.d.f., c.d.f of discrete r.v 8 Lecture, Problem solving
3 CO2 Mathematical Expectation of a discrete r.v, Mean and Variance of a discrete r.v. 8 Lecture, Problem solving
Module 3 Hours : 20
Syllabus:

Binomial distribution- mean and variance, simple examples. Normal distribution -definition, p.d.f, simple properties, calculation of probabilities using standard normal tables, simple problems.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Binomial distribution- mean and variance, simple examples. 8 Lecture, Problem solving
2 CO3 Normal distribution -definition, p.d.f, simple properties 2 Lecture, PPT
3 CO3 Calculation of probabilities using standard normal tables, simple problems. 10 Lecture, Problem solving

 

Department MATHEMATICS
Name of Faculty SWATHY K. N
Programme Name B.Sc PSYCHOLOGY
Level of study UG
Semester FOURTH
Course Name/Subject Name STATISTICAL INFERENCE
Total Hours 54

 

Course Outcomes

CO Number Description CO Evaluation methods
CO1 Explain the concepts of Testing of Hypotheses. Hypothesize various advanced statistical techniques for modelling and exploring practical situations. Assignment, Test
CO2 Solve the problems related to Testing of Hypotheses (Large Sample Tests) Assignment, Test
CO3 Solve the problems related to Testing of Hypotheses (small sample test) Assignment, Test

 

Module 1 Hours : 17
Syllabus:

Testing of hypothesis- Statistical hypothesis, Simple and composite hypothesis Null and Alternate hypothesis, Type I and Type II errors, Critical Region, Size of the test, P value.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Testing of hypothesis- Statistical hypothesis, Simple and composite hypothesis Null and Alternate hypothesis 8 Lecture, PPT
2 CO1 Type I and Type II errors, Critical Region, Size of the test 8 Lecture, PPT, Problem solving
3 CO1 P value. 1 Lecture, PPT, Problem solving
Module 2 Hours : 17
Syllabus:

Large sample tests – z-tests for means, difference of means, proportion and difference of proportion, chi-square tests for independence, homogeneity.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO2 Large sample tests – z-tests for means, difference of means 6 Lecture, PPT, Problem solving
2 CO2 Large sample tests – proportion and difference of proportion 6 Lecture, PPT, Problem solving
3 CO2 Chi – square tests for independence, homogeneity. 5 Lecture, PPT, Problem solving
Module 3 Hours : 20
Syllabus:

Normal tests for mean, difference of means and proportion (when σ known), t-tests for mean and difference of means (when σ unknown), paired t-test, test for proportion (binomial), chi – square test for variance, F-test for ratio of variances.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO3 Normal tests for mean, difference of means and proportion (when σ known) 7 Lecture, PPT, Problem solving
2 CO3 t-tests for mean and difference of means (when σ unknown) 5 Lecture, PPT, Problem solving
3 CO3 paired t-test 2 Lecture, PPT, Problem solving
4 CO3 test for proportion (binomial) 2 Lecture, PPT, Problem solving
5 CO3 Chi – square test for variance, F-test for ratio of variances. 4 Lecture, PPT, Problem solving

 

Department MATHEMATICS
Name of Faculty
Programme Name MA ECONOMICS
Level of study PG
Semester FIRST
Course Name/Subject Name Mathematical Methods for Economic Analysis
Total Hours 90

Course Outcomes

CO Number Description CO Evaluation methods
CO1 This is a course on the basic mathematical methods necessary for understanding modern economics literature. Mathematics provides a logical, systematic framework within which quantitative relationships may be explored, and an objective picture of the reality may be generated. The deductive reasoning about social and economic phenomena naturally invites the use of mathematics. Among the social sciences, economics has been in a privileged position to respond to that invitation, since two of its central concepts, commodity, and price, are quantified in a unique manner. Thus, a good understanding of mathematics is indispensable for better cognizance of almost all fields of economics, both applied and theoretical. The goal of the course is to make students understand, assimilate and thus capable of using the mathematics required for studying economics at the master’s level. This course will focus on developing the mathematical tools that are used extensively in Microeconomics, Macroeconomics, and Econometrics. Students should be given an introduction to the Linear algebra, Differential Calculus, Integral Calculus, etc. These mathematical methods would help students in their understanding of advanced and core courses in Economics. The aim of this course is to: (i) introduce the students to several mathematical tools used in modern economics; (ii) illustrate the use of these tools by applying them to various well-known economic models; and (iii) complement the core postgraduate microeconomic and macroeconomic theory courses. Learning outcomes: On completion of this unit, successful students should be able to demonstrate understanding of static optimization and dynamic systems applicable to economics. Assignment, Test, Viva, Seminar

 

Module 1 Hours : 15
Syllabus:Linear algebra

Definitions of vector and matrix. Types of matrices, Addition, subtraction and multiplication of matrices. Determinants, Minors, Cofactors, Adjoint and Inverse of a matrix. Solution of a system of linear equations – Cramer’s rule and Inversion method. Rank of a matrix -Linear independence of vectors. Some applications in Economics – Input -output analysis – Partial equilibrium market model.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Definitions of vector and matrix. Types of matrices, Addition, subtraction and multiplication of matrices. Determinants, Minors, Cofactors, Adjoint and Inverse of a matrix. 5 Lecture, PPT, Problem solving
2 CO1 Solution of a system of linear equations – Cramer’s rule and Inversion method. 4 Lecture, PPT, Problem solving
3 CO1 Rank of a matrix -Linear independence of vectors. 4 Lecture, PPT, Problem solving
4 CO1 Some applications in Economics – Input -output analysis – Partial equilibrium market model. 2 Lecture, PPT, Problem solving
Module 2 Hours : 25
Syllabus:Differential Calculus

Limit of a function – Derivative of a function. Rules of differentiation – Higher order derivatives – L’Hospital rule of finding the limit of a function. Differentiation of implicit function – Partial and total derivative of a function with several variables. Maxima and minima of a function. Curvature properties – Convexity and concavity – Points of inflection. Properties of homogeneous functions – Euler’s theorem. Matrix calculus: Rules of Matrix differentiation, differentiation of a matrix by a scalar, differentiation of a scalar by a matrix. Some applications in Economics- Derivation of Marginal cost, Marginal revenue functions – Derivation of point elasticity, tax yield and income multiplier, problems relating to indifference curve and isoquant. Production function, utility functions, cost functions. CobbDouglas production function, CES production function – Comparative static analysis of market model, national income model, input output model, determination of partial elasticities of demand.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Limit of a function – Derivative of a function. Rules of differentiation – Higher order derivatives – L’Hospital rule of finding the limit of a function. Differentiation of implicit function – Partial and total derivative of a function with several variables. Maxima and minima of a function. 7 Lecture, PPT, Problem solving
2 CO1 Curvature properties – Convexity and concavity – Points of inflection. Properties of homogeneous functions – Euler’s theorem. 5 Lecture, PPT, Problem solving
3 CO1 Matrix calculus: Rules of Matrix differentiation, differentiation of a matrix by a scalar, differentiation of a scalar by a matrix. 5 Lecture, PPT, Problem solving
4 CO1

 

Some applications in Economics- Derivation of Marginal cost, Marginal revenue functions – Derivation of point elasticity, tax yield and income multiplier, problems relating to indifference curve and isoquant. Production function, utility functions, cost functions. CobbDouglas production function, CES production function – Comparative static analysis of market model, national income model, input output model, determination of partial elasticities of demand. 8 Lecture, PPT, Problem solving
Module 3 Hours : 25
Syllabus:Integral Calculus

Indefinite integrals – rules of integration, initial conditions and boundary conditions. Integration by substitution, Integration by parts – Integration of natural exponential functions. Definite integrals – properties of definite integrals. Area under a curve, area between curves. Difference equations and differential equations (basic concepts only). Improper integrals – Beta and Gamma integrals. Some applications in Economics – Consumer surplus and producer surplus – continuous interest-discount calculation. Cobweb model, multiplier accelerator. Harrod – Domar and Solow model.

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Indefinite integrals – rules of integration, initial conditions and boundary conditions. Integration by substitution, Integration by parts – Integration of natural exponential functions. Definite integrals – properties of definite integrals. 9 Lecture, PPT, Problem solving
2 CO1 Area under a curve, area between curves. Difference equations and differential equations (basic concepts only). Improper integrals – Beta and Gamma integrals. 8 Lecture, PPT, Problem solving
3 CO1 Some applications in Economics – Consumer surplus and producer surplus – continuous interest-discount calculation. Cobweb model, multiplier accelerator. Harrod – Domar and Solow model. 8 Lecture, PPT, Problem solving
Module 4 Hours : 25
Syllabus: Linear Programming

Formulation of LPP and solution using graphical and Simplex methods. Duality theory – constrained optimization with inequality and non-negativity constrains. Kuhn-Tucker formulation. Primal and duel, shadow prices. Applications from Economics and Finance.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Formulation of LPP and solution using graphical and Simplex methods. 7 Lecture, PPT, Problem solving
2 CO1 Duality theory – constrained optimization with inequality and non-negativity constrains. 7 Lecture, PPT, Problem solving
3 CO1 Duality theory – constrained optimization with inequality and non-negativity constrains. 7 Lecture, PPT, Problem solving
4 CO1 Applications from Economics and Finance. 4 Lecture, PPT, Problem solving

 

Department MATHEMATICS
Name of Faculty
Programme Name MA ECONOMICS
Level of study PG
Semester FIRST
Course Name/Subject Name Mathematical Methods for Economic Analysis
Total Hours 90

 

Course Outcomes

CO Number Description CO Evaluation methods
CO1 This is a course on the basic mathematical methods necessary for understanding modern economics literature. Mathematics provides a logical, systematic framework within which quantitative relationships may be explored, and an objective picture of the reality may be generated. The deductive reasoning about social and economic phenomena naturally invites the use of mathematics. Among the social sciences, economics has been in a privileged position to respond to that invitation, since two of its central concepts, commodity, and price, are quantified in a unique manner. Thus, a good understanding of mathematics is indispensable for better cognizance of almost all fields of economics, both applied and theoretical. The goal of the course is to make students understand, assimilate and thus capable of using the mathematics required for studying economics at the master’s level. This course will focus on developing the mathematical tools that are used extensively in Microeconomics, Macroeconomics, and Econometrics. Students should be given an introduction to the Linear algebra, Differential Calculus, Integral Calculus, etc. These mathematical methods would help students in their understanding of advanced and core courses in Economics. The aim of this course is to: (i) introduce the students to several mathematical tools used in modern economics; (ii) illustrate the use of these tools by applying them to various well-known economic models; and (iii) complement the core postgraduate microeconomic and macroeconomic theory courses. Learning outcomes: On completion of this unit, successful students should be able to demonstrate understanding of static optimization and dynamic systems applicable to economics. Assignment, Test, Viva, Seminar

 

Module 1 Hours : 15
Syllabus: Linear algebra

Definitions of vector and matrix. Types of matrices, Addition, subtraction and multiplication of matrices. Determinants, Minors, Cofactors, Adjoint and Inverse of a matrix. Solution of a system of linear equations – Cramer’s rule and Inversion method. Rank of a matrix -Linear independence of vectors. Some applications in Economics – Input -output analysis – Partial equilibrium market model.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Definitions of vector and matrix. Types of matrices, Addition, subtraction and multiplication of matrices. Determinants, Minors, Cofactors, Adjoint and Inverse of a matrix. 5 Lecture, PPT, Problem solving
2 CO1 Solution of a system of linear equations – Cramer’s rule and Inversion method. 4 Lecture, PPT, Problem solving
3 CO1 Rank of a matrix -Linear independence of vectors. 4 Lecture, PPT, Problem solving
4 CO1 Some applications in Economics – Input -output analysis – Partial equilibrium market model. 2 Lecture, PPT, Problem solving
Module 2 Hours : 25
Syllabus:Differential Calculus

Limit of a function – Derivative of a function. Rules of differentiation – Higher order derivatives – L’Hospital rule of finding the limit of a function. Differentiation of implicit function – Partial and total derivative of a function with several variables. Maxima and minima of a function. Curvature properties – Convexity and concavity – Points of inflection. Properties of homogeneous functions – Euler’s theorem. Matrix calculus: Rules of Matrix differentiation, differentiation of a matrix by a scalar, differentiation of a scalar by a matrix. Some applications in Economics- Derivation of Marginal cost, Marginal revenue functions – Derivation of point elasticity, tax yield and income multiplier, problems relating to indifference curve and isoquant. Production function, utility functions, cost functions. CobbDouglas production function, CES production function – Comparative static analysis of market model, national income model, input output model, determination of partial elasticities of demand.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Limit of a function – Derivative of a function. Rules of differentiation – Higher order derivatives – L’Hospital rule of finding the limit of a function. Differentiation of implicit function – Partial and total derivative of a function with several variables. Maxima and minima of a function. 7 Lecture, PPT, Problem solving
2 CO1 Curvature properties – Convexity and concavity – Points of inflection. Properties of homogeneous functions – Euler’s theorem. 5 Lecture, PPT, Problem solving
3 CO1 Matrix calculus: Rules of Matrix differentiation, differentiation of a matrix by a scalar, differentiation of a scalar by a matrix. 5 Lecture, PPT, Problem solving
4 CO1

 

Some applications in Economics- Derivation of Marginal cost, Marginal revenue functions – Derivation of point elasticity, tax yield and income multiplier, problems relating to indifference curve and isoquant. Production function, utility functions, cost functions. CobbDouglas production function, CES production function – Comparative static analysis of market model, national income model, input output model, determination of partial elasticities of demand. 8 Lecture, PPT, Problem solving
Module 3 Hours : 25
Syllabus: Integral Calculus

Indefinite integrals – rules of integration, initial conditions and boundary conditions. Integration by substitution, Integration by parts – Integration of natural exponential functions. Definite integrals – properties of definite integrals. Area under a curve, area between curves. Difference equations and differential equations (basic concepts only). Improper integrals – Beta and Gamma integrals. Some applications in Economics – Consumer surplus and producer surplus – continuous interest-discount calculation. Cobweb model, multiplier accelerator. Harrod – Domar and Solow model.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Indefinite integrals – rules of integration, initial conditions and boundary conditions. Integration by substitution, Integration by parts – Integration of natural exponential functions. Definite integrals – properties of definite integrals. 9 Lecture, PPT, Problem solving
2 CO1 Area under a curve, area between curves. Difference equations and differential equations (basic concepts only). Improper integrals – Beta and Gamma integrals. 8 Lecture, PPT, Problem solving
3 CO1 Some applications in Economics – Consumer surplus and producer surplus – continuous interest-discount calculation. Cobweb model, multiplier accelerator. Harrod – Domar and Solow model. 8 Lecture, PPT, Problem solving
Module 4 Hours : 25
Syllabus:

Linear Programming

Formulation of LPP and solution using graphical and Simplex methods. Duality theory – constrained optimization with inequality and non-negativity constrains. Kuhn-Tucker formulation. Primal and duel, shadow prices. Applications from Economics and Finance.

 

Slno CO Number Topic /Activity No of hours Instructional methods to be used
1 CO1 Formulation of LPP and solution using graphical and Simplex methods. 7 Lecture, PPT, Problem solving
2 CO1 Duality theory – constrained optimization with inequality and non-negativity constrains. 7 Lecture, PPT, Problem solving
3 CO1 Duality theory – constrained optimization with inequality and non-negativity constrains. 7 Lecture, PPT, Problem solving
4 CO1 Applications from Economics and Finance. 4 Lecture, PPT, Problem solving