Data Science

Data Science Course Contents
Data Science Professional Program Curriculum
1. Course Title:
Comprehensive Data Science Professional Program
2. Duration:
12 Weeks (Approximately 3 Months)
(Assuming 8-10 hours of learning per week, including lectures, practicals, and self-study)
3. Module-wise Breakdown:
Module 1: Foundations of Data Science & Python Programming (3 Weeks)
Module Name: Introduction to Data Science & Python Essentials
Topics Covered:
What is Data Science? Lifecycle of a Data Science project.
Roles in Data Science (Analyst, Engineer, Scientist, ML Engineer).
Introduction to Python: Why Python for Data Science?
Setting up the Python Environment (Anaconda, Jupyter Notebook, VS Code).
Python Basics: Variables, Data Types (Integers, Floats, Strings, Booleans).
Python Data Structures: Lists, Tuples, Dictionaries, Sets.
Control Flow: Conditional statements (if-elif-else), Loops (for, while).
Functions: Defining functions, arguments, return values, lambda functions.
File Handling: Reading from and writing to files (CSV, TXT).
Introduction to Object-Oriented Programming (OOP) concepts (Classes, Objects).
Tools and Technologies Used:
Python 3.x
Jupyter Notebook / Google Colab
Anaconda / VS Code
Practical Assignments/Mini-Projects:
Simple Python scripts for basic calculations and string manipulations.
A mini-project involving reading data from a CSV, performing basic calculations, and writing results to a new file (e.g., student grade calculator).
Module 2: Applied Mathematics & Statistics for Data Science (2 Weeks)
Module Name: Essential Mathematics & Statistics
Topics Covered:
Linear Algebra Basics: Vectors, matrices, operations (dot product, transpose).
Calculus Basics: Derivatives, gradients (intuitive understanding for optimization).
Probability: Basic probability concepts, conditional probability, Bayes’ theorem.
Descriptive Statistics: Measures of central tendency (mean, median, mode), measures of dispersion (variance, standard deviation, range, IQR).
Inferential Statistics: Population vs. Sample, Hypothesis testing (t-tests, chi-squared), p-value, confidence intervals.
Distributions: Normal, Binomial, Poisson.
Tools and Technologies Used:
Python
NumPy (for numerical operations)
SciPy (for statistical functions)
Matplotlib (for basic visualizations of distributions)
Practical Assignments/Mini-Projects:
Implement basic linear algebra operations using NumPy.
Calculate descriptive statistics for a given dataset.
Perform a simple hypothesis test on a sample dataset.
Visualize different probability distributions.
Module 3: Data Collection, Wrangling & Exploratory Data Analysis (EDA) (2 Weeks)
Module Name: Mastering Data Manipulation & EDA
Topics Covered:
Introduction to NumPy: Arrays, array indexing, numerical operations.
Introduction to Pandas: Series, DataFrames, data loading (CSV, Excel, SQL).
Data Cleaning: Handling missing values (imputation, deletion), duplicate data, outliers.
Data Transformation: Filtering, sorting, grouping (groupby), merging, concatenating, pivoting.
Feature Engineering Basics: Creating new features from existing ones, binning, encoding categorical variables.
Exploratory Data Analysis (EDA): Understanding data patterns, univariate and bivariate analysis.
Introduction to SQL: Basic SELECT queries, WHERE, GROUP BY, JOINs for data extraction.
Web Scraping Basics (Optional, using Beautiful Soup & Requests).
Tools and Technologies Used:
Python, Pandas, NumPy
SQL (SQLite, or connection to a common DB like PostgreSQL/MySQL)
Beautiful Soup, Requests (optional for web scraping)
Practical Assignments/Mini-Projects:
Clean and preprocess a messy real-world dataset (e.g., Titanic dataset).
Perform comprehensive EDA on a dataset, deriving insights and summarizing findings.
Write SQL queries to extract and aggregate data from a sample database.
(Optional) Scrape data from a simple website.
Module 4: Data Visualization Techniques (2 Weeks)
Module Name: Visual Storytelling with Data
Topics Covered:
Principles of effective data visualization.
Matplotlib: Basic plots (line, bar, scatter, histogram), customizing plots, subplots.
Seaborn: Statistical visualizations, enhanced aesthetics, complex plots (heatmap, pairplot, violin plot).
Interactive Visualization: Introduction to Plotly/Bokeh for creating interactive charts.
Business Intelligence (BI) Tools: Introduction to Power BI or Tableau for dashboard creation.
Connecting to data sources.
Creating basic charts and dashboards.
Filters and slicers.
Tools and Technologies Used:
Python, Matplotlib, Seaborn
Plotly / Bokeh (introduction)
Power BI Desktop / Tableau Public
Practical Assignments/Mini-Projects:
Create a variety of static plots using Matplotlib and Seaborn to visualize insights from a dataset.
Develop an interactive plot using Plotly or Bokeh.
Build a simple interactive dashboard using Power BI or Tableau with a provided dataset.
Module 5: Foundations of Machine Learning (2 Weeks)
Module Name: Understanding Machine Learning Concepts
Topics Covered:
Introduction to Machine Learning: What, why, and how.
Types of Machine Learning: Supervised, Unsupervised, Reinforcement Learning.
Common ML Tasks: Regression, Classification, Clustering.
The Machine Learning Workflow: Data collection, preprocessing, model training, evaluation, deployment.
Key Concepts: Features, labels, training set, test set, validation set.
Bias-Variance Tradeoff, Overfitting, Underfitting.
Cross-Validation techniques.
Model Evaluation Metrics:
Regression: MSE, RMSE, MAE, R-squared.
Classification: Accuracy, Precision, Recall, F1-score, Confusion Matrix, ROC-AUC.
Tools and Technologies Used:
Python
Scikit-learn (for basic model building and evaluation utilities)
Practical Assignments/Mini-Projects:
Implement train-test split and cross-validation on a dataset.
Calculate and interpret various evaluation metrics for given model predictions.
Discuss scenarios of overfitting/underfitting and how to identify them.
Module 6: Advanced Topics & Specializations (Optional Electives or Overview – 2 Weeks)
Module Name: Exploring Advanced Data Science Domains
Natural Language Processing (NLP) Basics:
Text preprocessing: Tokenization, stemming, lemmatization, stop-word removal.
Feature extraction: Bag-of-Words, TF-IDF.
Basic Sentiment Analysis.
Introduction to Deep Learning:
Neural Networks concepts: Neurons, layers, activation functions.
Introduction to TensorFlow/Keras or PyTorch.
Simple ANN for classification/regression.
Introduction to Big Data Technologies (Overview):
Hadoop Ecosystem (HDFS, MapReduce).
Apache Spark (RDDs, DataFrames).
Tools and Technologies Used:
Python, Statsmodels, Prophet (for Time Series)
NLTK, spaCy, Scikit-learn (for NLP)
TensorFlow/Keras or PyTorch (for Deep Learning)
(Conceptual understanding for Big Data tools)
Practical Assignments/Mini-Projects:
Build a basic time series forecasting model.
Perform sentiment analysis on a dataset of reviews.
Build a simple neural network for image or tabular data classification
Capstone Project (4 Weeks)
- Description: Students will work individually or in small groups on a comprehensive data science project from start to finish. This involves defining a problem, collecting and cleaning data, performing EDA, building and evaluating machine learning models, and (optionally) deploying a simple version or creating a detailed report and presentation.
Examples:
Predicting house prices with advanced feature engineering and model comparison.
Customer segmentation and targeted marketing strategy proposal.
Building a movie/product recommendation system.
Fraud detection system.
Analyzing social media sentiment on a specific topic.
Deliverables:
Project proposal.
Well-documented code (Jupyter Notebook or Python scripts).
A comprehensive report detailing methodology, findings, and conclusions.
A final presentation of the project.
Tools and Technologies Used: All relevant tools covered throughout the course.
6. Career Preparation Module (Parallel to Capstone or Final Week)
Module Name: Launching Your Data Science Career
Topics Covered:
Crafting an effective Data Science resume and cover letter.
Building a strong LinkedIn profile and professional network.
Portfolio development: Showcasing projects on GitHub.
Preparing for technical interviews (Python, SQL, ML concepts, case studies).
Behavioral interview preparation (STAR method).
Mock interview sessions with feedback.
Understanding the job market and different Data Science roles.
Negotiation skills.
Activities:
Resume review workshops.
LinkedIn profile optimization sessions.
Multiple mock interviews (technical and HR).
Guest lectures from industry professionals.
Mode of Delivery:
Hybrid Model Recommended:
Live Online Interactive Sessions: For lectures, Q&A, and discussions (e.g., 2-3 sessions per week).
Recorded Sessions: For students to review concepts at their own pace.
Offline/In-Person Workshops (Optional): For intensive practical sessions, capstone project mentorship, or networking events, if feasible.
Self-Paced Learning: Reading materials, assignments, and mini-projects.
9. Tools/Platforms Used for Teaching:
Live Sessions: Zoom, Microsoft Teams, Google Meet.
Coding Environments:
Jupyter Notebook / JupyterLab
Google Colaboratory (for easy setup and GPU access for advanced topics)
VS Code with Python extension
Version Control: GitHub / GitLab for code sharing and portfolio.
Communication: Slack or Discord channel for student-instructor and peer-to-peer interaction.
BI Tools: Power BI Desktop (free), Tableau Public (free).