Paper | Paper Name | Outcomes After completion of the course, the student should be able to |
SEMESTER I | ||
COURSE 1 | ESSENTIALS AND APPLICATIONS OF MATHEMATICAL, PHYSICAL AND CHEMICAL SCIENCES | CO 1 : Apply critical thinking skills to solve complex problems involving complex numbers, trigonometric ratios, vectors, and statistical measures. CO 2 : Explain the basic principles and concepts underlying fundamental areas of physics and connect knowledge to everyday situations. CO 3 : Explain basic principles of chemistry and connect knowledge to daily life. CO 4 : Understand interplay between mathematics, physics, and chemistry in various applications. CO 5 : Explore history of Internet and understand network security concepts including threats and countermeasures. |
COURSE 2 | ADVANCES IN MATHEMATICAL, PHYSICAL AND CHEMICAL SCIENCES | CO 1 : Explore mathematical applications in physics and chemistry for real-world problem solving. CO 2 : Understand renewable energy sources, nanomaterials, quantum communication, biophysics principles, and shape memory materials. CO 3 : Understand computer-aided drug design, nanosensors, and effects of chemical pollutants. CO 4 : Convert between number systems and understand transmission media types (wired/wireless). |
SEMESTER II | ||
COURSE 3 | INTRODUCTION TO DATA SCIENCE AND R PROGRAMMING | CO 1 : Recognize disciplines contributing to data science efforts. CO 2 : Understand data science processes from problem identification to visualization. CO 3 : Identify appropriate algorithms for different problem types. CO 4 : Use R/Python for data analytics and visualization. |
PRACTICAL | CO 1 : Perform basic operations in R with arithmetic and statistics. CO 2 : Implement data manipulation and loading in R. CO 3 : Apply loop functions (lapply, sapply, tapply, apply, mapply). CO 4 : Create basic plots and visualizations. | |
COURSE 4 | DESCRIPTIVE STATISTICS | CO 1 : Implement statistical concepts in data science domains. CO 2 : Organize data and evaluate summary measures. CO 3 : Analyze qualitative data characteristics and associations. CO 4 : Conduct preliminary data exploration. CO 5 : Perform correlation and regression analysis. |
PRACTICAL | CO 1 : Create histograms and frequency polygons. CO 2 : Design bar/pie charts and compute central tendency measures. | |
SEMESTER III | ||
COURSE 5 | PYTHON PROGRAMMING FOR DATA ANALYSIS | CO 1 : Program in Python for data analysis. CO 2 : Understand data analysis phases and libraries. CO 3 : Implement data cleaning with Pandas. |
COURSE 5 | PRACTICAL | CO 1 : Apply Python data analysis methods. CO 2 : Navigate Python programming environments. |
COURSE 6 | INFERENTIAL AND APPLIED STATISTICS | CO 1 : Apply law of large numbers. CO 2 : Conduct point estimation and hypothesis testing. CO 3 : Perform inferences on probability distributions. CO 4 : Implement non-parametric methods. |
PRACTICAL | CO 1 : Analyze time series data components. CO 2 : Implement demographic concepts through practical assignments. | |
COURSE 7 | DATA MINING TECHNIQUES USING R | CO 1 : Understand data mining algorithms. CO 2 : Compare different data mining approaches. CO 3 : Apply techniques to real-world problems. |
SEMESTER IV | ||
COURSE 8 | WEB TECHNOLOGIES | CO 1 : Create static/dynamic websites. CO 2 : Implement JavaScript interactions. CO 3 : Host websites and manage web content. |
PRACTICAL | CO 1 : Develop college website pages. CO 2 : Create framed webpages with dynamic layouts. | |
SEMESTER V | ||
COURSE 12 | SUPERVISED ML WITH PYTHON | CO 1 : Understand ML concepts and model persistence. CO 2 : Implement feature extraction and classification. CO 3 : Compare SVM with other classifiers. |
PRACTICAL | CO 1 : Explore classification/regression algorithms. |