Abstract
IPL Data Analysis is an open-source Data Science project. 1. Take the win_by_wickets dataset and plot frequency distribution graph On x-axis - Win by Wickets on y-axis Win by Wickets margin 2. Relative frequency distribution graph using the same data set win_by_wickets Hint: use normalize = True argument for pandas.Series.value_counts Instead of showing frequency show percentage of values 3. Plot Cumulative relative frequency graph Use function pandas.Series.cumsum 4. Find out the probability of winning a match by 6 wickets or less? Find out the probability using the cumulative relative frequency graph Draw a vertical line from 6 on x-axis till it intercepts the curve and the draw the horizontal line till it intercepts y-axis Hint: Answer is 54% 5. Plot the normal distribution for win_by_wickets data. Calculate mean and standard deviation for win_by_wickets data Plot Histogram Plot Line Graph Plot Normal distribution between 1 and 10 using mean and standard deviation as calculated above 6. Calculate z-score if the team wins by 35 runs. Calculate mean and standard deviation for win_by_wickets data Use win_by_runs dataset 7. Calculate percentile using z-score. Use scipy.stats.norm.cdf function. It is built using Jupyter Notebook. The complete source code is publicly available on GitHub under the MIT License, making it a useful reference for students building a Data Science mini project or final-year project.
1. Introduction
1. Take the win_by_wickets dataset and plot frequency distribution graph On x-axis - Win by Wickets on y-axis Win by Wickets margin 2. Relative frequency distribution graph using the same data set win_by_wickets Hint: use normalize = True argument for pandas.Series.value_counts Instead of showing frequency show percentage of values 3. Plot Cumulative relative frequency graph Use function pandas.Series.cumsum 4. Find out the probability of winning a match by 6 wickets or less? Find out the probability using the cumulative relative frequency graph Draw a vertical line from 6 on x-axis till it intercepts the curve and the draw the horizontal line till it intercepts y-axis Hint: Answer is 54% 5. Plot the normal distribution for win_by_wickets data. Calculate mean and standard deviation for win_by_wickets data Plot Histogram Plot Line Graph Plot Normal distribution between 1 and 10 using mean and standard deviation as calculated above 6. Calculate z-score if the team wins by 35 runs. Calculate mean and standard deviation for win_by_wickets data Use win_by_runs dataset 7. Calculate percentile using z-score. Use scipy.stats.norm.cdf function
2. Objective
1. Take the win_by_wickets dataset and plot frequency distribution graph On x-axis - Win by Wickets on y-axis Win by Wickets margin 2. Relative frequency distribution graph using the same data set win_by_wickets Hint: use normalize = True argument for pandas.Series.value_counts Instead of showing frequency show percentage of values 3. Plot Cumulative relative frequency graph Use function pandas.Series.cumsum 4. Find out the probability of winning a match by 6 wickets or less? Find out the probability using the cumulative relative frequency graph Draw a vertical line from 6 on x-axis till it intercepts the curve and the draw the horizontal line till it intercepts y-axis Hint: Answer is 54% 5. Plot the normal distribution for win_by_wickets data. Calculate mean and standard deviation for win_by_wickets data Plot Histogram Plot Line Graph Plot Normal distribution between 1 and 10 using mean and standard deviation as calculated above 6. Calculate z-score if the team wins by 35 runs. Calculate mean and standard deviation for win_by_wickets data Use win_by_runs dataset 7. Calculate percentile using z-score. Use scipy.stats.norm.cdf function
This project demonstrates how Jupyter Notebook can be applied to a real-world Data Science problem.
4. Technology Stack
5. System Requirements
General requirements for this technology stack — check the README for exact versions.
- Python 3.8 or later with Jupyter Notebook / JupyterLab (or Google Colab)
- pip for dependencies
- Git (to clone the repository)
6. Installation & Setup
git clone https://github.com/GD-Singh011/IPL-Data-Analysis.git
cd IPL-Data-AnalysisFull setup instructions are in the project README.
7. Future Enhancements
Suggested extensions you can add to make this your own project.
- Turn the analysis into an interactive dashboard
- Automate data refresh with a scheduled job
- Add a predictive model on top of the analysis
8. Viva / Review Questions
Common questions examiners ask for projects in this domain.
- What is the source of the dataset and how was missing data handled?
- Which exploratory analysis steps revealed the most useful insight?
- Why were these particular charts chosen to present the data?
- Which statistical or ML technique supports the conclusions?
- How could the analysis be automated or refreshed with new data?
9. Source Code & License
This project is developed by GD-Singh011 and published on GitHub under the MIT License. Please follow the license terms and credit the original author when you use or modify this code.
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