top of page

RBI -DSIM SYLLABUS

SUNRISE CLASSES IS IN LAXMI NAGAR NEAR METRO STATION EXIT FROM GATE NO. 5


upsc iss 2024 result
upsc iss 2024 result

upsc iss 2024 result
UPSC ISS AIR-01


upsc iss 2024 result
     UPSC ISS AIR-02

        


     UPSC ISS RESULT 2024
UPSC ISS AIR-27


     UPSC ISS RESULT 2024
UPSC ISS AIR-30

SUNRISE CLASSES UPSC INDIAN STATISTICAL SERVICE ISS 2025 RESULT AIR-2, AIR 4, AIR-10, AIR-12, AIR14, AIR-21, AIR-22, AIR-23, AIR-31, AIR-34
UPSC INDIAN STATISTICAL SERVICE ISS 2025 RESULT

RBI Grade B (DR)-DSIM 2025: Scheme of Selection and Detailed Syllabus


(i) Scheme of Selection

Selection will be through Online/Written Examination (WE) and Interview. There are 3 papers for the examination.

  • Paper-I: Objective Type (on Statistics) .

  • Paper-II and Paper-III 

The details are as follows:

Name of Paper

Duration

Maximum Marks

Paper-I: Objective Type (on Statistics)

120 minutes

100

Paper-II: Descriptive Type (on Statistics) – Question paper displayed on computer, answers to be written on paper

180 minutes

100

Paper-III: English – Descriptive – To be typed with the help of keyboard

90 minutes

100

Total


300

  • Other detailed information regarding the examination will be given in an Information Handout, which will be made available to the candidates for download along with the Admit Card for examination from the RBI website.

  • Candidates have to secure minimum marks as may be prescribed by the Board.

  • Candidates who secure the prescribed minimum aggregate marks in Paper-I will be shortlisted for Paper-II and Paper-III of the examination based on the aggregate marks obtained in Paper-I.

  • The minimum aggregate cut-off marks for being shortlisted for Paper-II and Paper-III of the examination will be decided by the Board in relation to the number of vacancies.

  • The Roll Numbers of candidates shortlisted for Paper-II and Paper-III examination will be published on the RBI website in due time after the Paper-I examination.

(ii) Paper-II and Paper-III – Online/Written Examination

The Paper-II and Paper-III Examination will be only for candidates who are shortlisted on the basis of the results of Paper-I.

Paper-II and Paper-III examinations will be conducted in shifts. Candidates are required to appear for all the papers in all the shifts.

A single Admit Card will be issued for both shifts.

The timetable for Paper-II and Paper-III will be intimated to the candidates concerned along with the Admit Card for Paper-II and Paper-III.

Medium of Examination

Question papers for the Written Examination (WE) will be set in Hindi and English, except Paper-III on English.

  • Answers for Paper-II may be written either in Hindi or English.

  • Paper-III will have to be answered in English only.

  • Candidates may opt for the Interview in Hindi or English.

(iii) Interview Shortlisting

The number of candidates to be called for the Interview will be decided by the Board.

(iv) Final Selection

Final selection will be on the basis of performance in the Online/Written Examination – Paper-I, Paper-II and Paper-III – and Interview taken together.

The Interview will be of 75 marks.

Candidates may opt for the Interview either in Hindi or English.

(v) Personality Assessment

Candidates will be required to undergo a Personality Assessment conducted by the Bank before appearing for the Interview.

No marks will be allotted for the Personality Assessment, and it will not form part of the final selection criteria.

RBI-DSIM Syllabi

The standard of the papers will be that of a Post-Graduation Degree Examination of any recognized Institution/University in India.

Paper-I and Paper-II

The syllabus for Paper-I and Paper-II consists of the following major areas:

  1. Theory of Probability, Probability Distributions and Sampling Theory

  2. Linear Models and Economic Statistics

  3. Statistical Inference: Estimation, Testing of Hypothesis and Non-Parametric Test

  4. Stochastic Processes

  5. Multivariate Analysis

  6. Econometrics and Time Series

  7. Optimization and Statistical Computing

  8. Data Science, Artificial Intelligence and Machine Learning Techniques

  9. Database and Data Warehouse Management

Detailed Syllabus

1. Theory of Probability, Probability Distributions and Sampling Theory

Probability Theory

  • Classical and axiomatic approach of probability and its properties.

  • Bayes Theorem and its application.

  • Strong and weak laws of large numbers.

  • Characteristic functions.

  • Central Limit Theorem.

  • Probability inequalities.

Probability Distributions

Standard probability distributions:

  • Binomial

  • Poisson

  • Geometric

  • Negative Binomial

  • Uniform

  • Normal

  • Exponential

  • Logistic

  • Log-normal

  • Beta

  • Gamma

  • Weibull

  • Bivariate Normal, etc.

Sampling Distributions

  • Exact sampling distributions – Chi-square, Student's t, F and Z distributions and their applications.

  • Asymptotic sampling distributions and large sample tests.

  • Association and analysis of contingency tables.

Sampling Theory

Standard sampling methods such as:

  • Simple Random Sampling

  • Stratified Random Sampling

  • Systematic Sampling

  • Cluster Sampling

  • Two-stage Sampling

  • Probability Proportional to Size (PPS), etc.

  • Ratio Estimation

  • Regression Estimation

  • Non-sampling errors

  • Problem of non-response

2. Linear Models and Economic Statistics

Linear Algebra

  • Vectors and matrices

  • Spanning of vector space

  • Matrix algebra

  • Inverse of partitioned matrices

  • g-inverse

  • Orthogonal matrices

  • Properties of idempotent matrices

  • Characteristic roots and vectors

  • Cayley-Hamilton theorem

  • Quadratic forms

  • Definite, semi-definite and indefinite forms

  • Simultaneous reduction of two quadratic forms

  • Properties of similar matrices

Regression Analysis

Simple Linear Regression

  • Assumptions

  • Estimation

  • Inference

  • Diagnostic checks

Other topics include:

  • Polynomial regression

  • Transformations on Y or X such as:

    • Box-Cox transformation

    • Square-root transformation

    • Log transformation, etc.

  • Method of weighted least squares

  • Inverse regression

Multiple Regression

  • Standard Gauss-Markov setup

  • Least squares estimation and related properties

  • Regression analysis with correlated observations

  • Simultaneous estimation of linear parametric functions

  • Testing of hypotheses

  • Confidence intervals and regions

  • Multicollinearity

  • Shrinkage models:

    • Ridge Regression

    • LASSO

    • Elastic Net

  • Model selection criteria

  • Residual diagnostics

  • Categorical data analysis using dummy variables

  • Outlier detection and treatment

Economic Statistics

  • Definition and construction of index numbers

  • Standard index numbers

  • Conversion of chain-base index to fixed-base and vice versa

  • Base shifting

  • Splicing

  • Deflating of index numbers

  • Measurement of economic inequality:

    • Gini's coefficient

    • Lorenz curves, etc.

  • Basics of macroeconomics

  • National accounts

3. Statistical Inference: Estimation, Testing of Hypothesis and Non-Parametric Test
Estimation

Topics include:

  • Concepts of estimation

  • Unbiasedness

  • Sufficiency

  • Consistency

  • Efficiency

  • Factorization theorem

  • Complete statistic

  • Minimum Variance Unbiased Estimator (MVUE)

  • Rao-Blackwell theorem and its applications

  • Lehmann-Scheffe theorem and its applications

  • Cramer-Rao inequality

Methods of Estimation

  • Method of Moments

  • Maximum Likelihood Estimation

  • Method of Least Squares

  • Method of Minimum Chi-square

  • Basic idea of Bayes estimators

Principles of Test of Significance

  • Type-I errors

  • Type-II errors

  • False-positive errors

  • False-negative errors

  • Critical region

  • Level of significance

  • Size

  • p-value and its interpretation

  • Power

  • Best critical region

  • Most powerful test

  • Uniformly Most Powerful (UMP) test

  • Neyman-Pearson theory of testing of hypothesis

  • Likelihood ratio tests

  • Tests of goodness of fit

  • Bartlett's test for homogeneity of variances

Non-Parametric Test

The following non-parametric procedures are included:

  • Kolmogorov-Smirnov test

  • Sign test

  • Wilcoxon Signed-Rank test

  • Wilcoxon Rank-Sum test

  • Mann-Whitney U-test

  • Kruskal-Wallis one-way ANOVA test

  • Friedman's test

  • Kendall's Tau coefficient

  • Spearman's coefficient of rank correlation

Other topics include:

  • Distribution of order statistics

  • Distribution fitting

  • Kernel density estimation

4. Stochastic Processes

Poisson Process

  • Arrival distributions

  • Interarrival distributions

  • Conditional arrival distributions

  • Non-homogeneous processes

  • Law of Rare Events

  • Poisson Process

  • Compound Poisson Processes

Markov Chains

  • Transition probability matrix

  • Chapman-Kolmogorov equations

  • Regular chains

  • Stationary distributions

  • Periodicity

  • Limit theorems

  • Patterns for recurrent events

  • Brownian Motion

    • Limit of Random Walk

    • Defining characteristics

    • Peculiarities

  • Martingales

5. Multivariate Analysis

Topics include:

  • Multivariate Normal Distribution

  • Properties and characterization of Multivariate Normal Distribution

  • Logit-Probit models

  • Mahalanobis' \(D^2\) statistics

  • Linear Discriminant Analysis (LDA)

  • Canonical Correlation Analysis

  • Principal Components Analysis (PCA)

  • Factor Analysis

  • Cluster Analysis

6. Econometrics and Time Series

Econometrics

  • General linear model and its extensions

  • Ordinary Least Squares (OLS)

  • Generalized Least Squares (GLS)

  • Estimation and prediction

  • Heteroscedastic disturbances

  • Pure and mixed estimation

  • Autocorrelation

  • Consequences of autocorrelation

  • Related tests

  • Theil BLUS procedure

  • Estimation and prediction

  • Multicollinearity

  • Implications of multicollinearity

  • Tools for handling multicollinearity

  • Ridge regression

Additional topics:

  • Linear regression

  • Stochastic regression

  • Instrumental Variable Regression

  • Panel regression

  • Autoregressive linear regression

  • Distributed lag models

  • Estimation of lags by OLS method

  • Simultaneous linear equations model and its generalization

  • Identification problem

  • Restrictions on structural parameters

  • Rank and order conditions

  • Different estimation methods for simultaneous equations model

  • Prediction

  • Simultaneous confidence intervals

Time Series

  • Exploratory analysis of time series

  • Concepts of weak stationarity

  • Concepts of strong stationarity

  • AR processes

  • MA processes

  • ARMA processes and their properties

  • Model identification based on ACF and PACF

  • Model estimation

  • Diagnostic tests

  • Box-Jenkins models

  • ARCH models

  • GARCH models

Inference with Non-Stationary Models

  • ARIMA model

  • SARIMA model

  • Determination of the order of integration

  • Trend stationarity

  • Difference stationarity processes

  • Tests of non-stationarity

7. Optimization and Statistical Computing

Optimization

  • Unconstrained optimization using calculus

    • Taylor's theorem

    • Convex functions

    • Coercive functions

  • Unconstrained optimization through iterative methods:

    • Newton's method

    • Gradient-based methods

    • Conjugate gradient-based methods

    • Quasi-Newton methods

  • Constrained optimization

    • Penalty methods

    • Lagrange multipliers

  • Convex sets

  • Convex hull

  • Formulation of a Linear Programming Problem

  • Theorems dealing with vertices of feasible regions and optimality

  • Graphical solution

  • Simplex method

Statistical Computing

  • Simulation techniques for various probability models

  • Resampling methods:

    • Jackknife

    • Bootstrap

    • Cross-validation

  • Techniques for robust linear regression

  • Nonlinear regression

  • Generalized linear regression problems

  • Tree-structured regression and classification

  • Analysis of incomplete data:

    • EM algorithm

    • Single imputation

    • Multiple imputation

  • Bayesian modelling and estimation

  • Markov Chain Monte Carlo (MCMC)

  • Annealing techniques

  • Gibbs sampling

  • Metropolis-Hastings algorithm

  • Neural Networks

  • Association Rules

  • Learning algorithms

8. Data Science, Artificial Intelligence and Machine Learning Techniques

Topics include:

  • Introduction to supervised pattern classification

  • Introduction to unsupervised pattern classification

  • Unsupervised learning

  • Reinforcement learning

  • Basics of optimization

  • Model accuracy measures

  • Linear Regression

  • Logistic Regression

  • Penalized Regression

  • Naïve Bayes

  • Nearest Neighbor

  • Decision Tree

  • Support Vector Machine

  • Kernel Density Estimation

  • Kernel Discriminant Analysis

  • Classification under a regression framework

  • Neural Networks

  • Kernel Regression

  • Trees and Random Forests

Clustering Methods

  • Hierarchical methods

  • Non-hierarchical methods

  • K-means

  • K-medoids

  • Linkage methods

Cluster Validation Indices

  • Dunn Index

  • Gap Statistics

Ensemble Learning

  • Bagging

  • Random Forest

  • Boosting

    • Adaptive Boosting

    • Gradient Boosting

Deep Learning and NLP

  • Recurrent Neural Network (RNN)

  • Convolutional Neural Network (CNN)

  • Natural Language Processing (NLP)

Feature Selection, Regularization and Model Tuning

  • Recursive Feature Elimination (RFE)

  • Variance Inflation Factor (VIF)

  • Ensembling methods

  • Stacking methods

  • Elastic Net regularization

  • Hyperparameter tuning through Grid Search

  • Feature importance interpretation

  • Cross-validation strategies

9. Database and Data Warehouse Management

The syllabus includes:

  • Data structures

  • Fundamentals of Relational Database Management Systems (RDBMS)

  • Fundamentals of non-traditional databases

  • NoSQL databases

  • Principles of database normalization

  • Data redundancy elimination

  • Consistency maintenance

Structured Query Language (SQL)

  • Querying

  • Updating

  • Aggregating

  • Managing relational data

Database Joins

  • Inner Join

  • Left Join

  • Right Join

  • Outer Join

  • Applications of joins to data merging and integration

NoSQL Databases

Overview of:

  • Document-based databases

  • Key-value databases

  • Wide-column stores

  • Graph databases

Data Warehousing

  • Data warehousing concepts

  • Star schemas

  • Snowflake schemas

  • ETL – Extract, Transform, Load processes

  • OLAP vs OLTP

  • Database indexing

  • Database optimization

  • Basics of big-data frameworks

  • Storage systems for large-scale data handling

Paper-III

English

The paper on English shall be framed in a manner to assess the candidate's writing skills, including expression and understanding of the topic.

C. Manner of Conduct of Examinations for Grade ‘B’ (DR)-DEPR/DSIM

This section deals with the manner in which examinations for RBI Grade ‘B’ (DR)-DEPR/DSIM are conducted.





RBI-DSIM SYLLABUS 


1. Theory of Probability and Probability Distributions   Classical and axiomatic approach of probability and its properties, Bayes theorem and its application,  strong and weak laws of large numbers, characteristic functions, central limit theorem, probability  inequalities.  Standard probability distributions – Binomial, Poison, Geometric, Negative binomial, Uniform,  Normal, exponential, Logistic, Log-normal, Beta, Gamma, Weibull, Bivariate normal etc.   Exact Sampling distributions - Chi-square, student’s t, F and Z distributions and their applications.  Asymptotic sampling distributions and large sample tests, association and analysis of contingency  tables.   Sampling Theory:  Standard sampling methods such simple random sampling, Stratified random sampling, Systematic  sampling, Cluster sampling, Two stage sampling, Probability proportional to size etc. Ratio  estimation, Regression estimation, non-sampling errors and problem of non-response, and  Correspondence and categorical data analysis.


  2. Linear Models and Economic Statistics  Simple linear regression - assumptions, estimation, and inference diagnostic checks; polynomial  regression, transformations on Y or X (Box-Cox, square root, log etc.), method of weighted least  squares, inverse regression. Multiple regression - Standard Gauss Markov setup, least squares  estimation and related properties, regression analysis with correlated observations. Simultaneous  estimation of linear parametric functions, Testing of hypotheses; Confidence intervals and regions;  Multicollinearity and ridge regression, LASSO.  Definition and construction of index numbers, Standard index numbers; Conversion of chain base  index to fixed base and vice-versa; base shifting, splicing and deflating of index numbers;  Measurement of economic inequality: Gini's coefficient, Lorenz curves etc. 

  

3. Statistical Inference: Estimation, Testing of Hypothesis and Non-Parametric Test  Estimation: Concepts of estimation, unbiasedness, sufficiency, consistency and efficiency.  Factorization theorem. Complete statistic, Minimum variance unbiased estimator (MVUE), Rao Blackwell and Lehmann-Scheffe theorems and their applications. Cramer-Rao inequality.  Methods of Estimation: Method of moments, method of maximum likelihood estimation, method of  least square, method of minimum Chi-square, basic idea of Bayes estimators.  Principles of Test of Significance: Type-I and Type-II errors, critical region, level of significance,  size and power, best critical region, most powerful test, uniformly most powerful test, Neyman  Pearson theory of testing of hypothesis. Likelihood ratio tests, Tests of goodness of fit. Bartlett's test  for homogeneity of variances.  Non-Parametric Test: The Kolmogorov-Smirnov test, Sign test, Wilcoxon Signed-rank test,  Wilcoxon Rank-Sum test, Mann Whitney U-test, Kruskal-Walls one way ANOVA test, Friedman's  test, Kendall's Tau coefficient, Spearman's coefficient of rank correlation. 


 4. Stochastic Processes  Poisson Processes: Arrival, interarrival and conditional arrival distributions. Non-homogeneous  Processes. Law of Rare Events and Poisson Process. Compound Poisson Processes.    Markov Chains: Transition probability matrix, Chapman- Kolmogorov equations, Regular chains  and Stationary distributions, Periodicity, Limit theorems. Patterns for recurrent events. Brownian  Motion - Limit of Random Walk, its defining characteristics and peculiarities; Martingales.  5. Multivariate Analysis  Multivariate normal distribution and its properties and characterization; Wishart matrix, its distribution  and properties, Hotelling’s T2 statistic, its distribution and properties, and its applications in tests on  mean vector, Mahalanobis’ D2 statistics; Canonical correlation analysis, Principal components  analysis, Factor analysis and cluster analysis. 


 6. Econometrics and Time Series  General linear model and its extensions, ordinary least squares and generalized least squares  estimation and prediction, heteroscedastic disturbances, pure and mixed estimation. Auto  correlation, its consequences and related tests; Theil BLUS procedure, estimation and prediction;  issue of multi-collinearity, its implications and tools for handling it; Ridge regression.   Linear regression and stochastic regression, instrumental variable regression, autoregressive linear  regression, distributed lag models, estimation of lags by OLS method. Simultaneous linear equations  model and its generalization, identification problem, restrictions on structural parameters, rank and  order conditions; different estimation methods for simultaneous equations model, prediction and  simultaneous confidence intervals.   Exploratory analysis of time series; Concepts of weak and strong stationarity; AR, MA and ARMA  processes and their properties; model identification based on ACF and PACF; model estimation and  diagnostic tests; Box-Jenkins models; ARCH/GARCH models.  Inference with Non-Stationary Models: ARIMA model, determination of the order of integration,  trend stationarity and difference stationary processes, tests of non-stationarity.  


7. Statistical Computing  Simulation techniques for various probability models, and resampling methods jack-knife, bootstrap  and cross-validation; techniques for robust linear regression, nonlinear and generalized linear  regression problem, tree-structured regression and classification; Analysis of incomplete data – EM  algorithm, single and multiple imputation; Markov Chain Monte Carlo and annealing techniques,  Gibbs sampling, Metropolis-Hastings algorithm; Neural Networks, Association Rules and learning  algorithms.  


8. Data Science, Artificial Intelligence and Machine Learning Techniques  Introduction to supervised and unsupervised pattern classification; unsupervised and reinforcement  learning, basics of optimization, model accuracy measures.   Supervised Algorithms: Linear Regression, Logistic Regression, Penalized Regression, Naïve  Bayes, Nearest Neighbour, Decision Tree, Support Vector Machine, Kernel density estimation and  kernel discriminant analysis; Classification under a regression framework, neural network, kernel  regression and tree and random forests.  Unsupervised Classification: Hierarchical and non-hierarchical methods: k-means, k-medoids and  linkage methods, Cluster validation indices: Dunn index, Gap statistics.  Bagging (Random Forest) and Boosting (Adaptive Boosting, Gradient Boosting) techniques;  Recurrent Neural Network (RNN); Convolutional Neural Network; Natural Language Processing.

bottom of page