......'s Projects
Python Based implementation of OpenWeatherMap API for making a 5 day(3 Hour) forecast.
Repo for ATTD-2024 poster submission
Project Report submitted in partial fulfillment of Text Mining Course(732A92)
The objective of this project is to demonstrate the use of Artificial Neural Networks in predicting the compressive strength of concrete.
Implementation of various Fuzzy Search Algorithms for String Matching
Some old code.
The project demonstrates how an SVM model can successfully identify and classify image of all the alphabets.
Generate News Summary on the fly.
A GUI based Machine Learning Web Application for non ML Experts. It simplifies the understanding by presenting model results visually. The User has to only upload Dataset to see the results.
R code snippets to aid '732A99' Machine Learning course offered at Linkoping University.
The objective of the Project is to predict ‘Full Load Electrical Power Output’ of a Base load operated combined cycle power plant using Polynomial Multiple Regression. Concepts : 1) Clustering, 2) Polynomial Regression, 3) LASSO, 4) Cross-Validation, 5) Bootstrapping
The objective of the project is to demonstrate a model which can identify risky bank loans i.e., the one's likely to default. In doing so, I have implemented decision tree algorithm and applied boosting to further make the code more accurate.
This Repository attempts to demonstrate modern Neural Networking tools to forecast Time Series data.
The objective of the project was to build a model that can accurately differentiate spam messages from ham ones. In doing so, I tried to showcase the ability of naive-bayes algorithm to accurately predict the mesage as spam or ham.
Implementation of 'Continuous Wavelet Transformation' with a morlet basis for spindle detection.
The objective of the project is to classify steel plates fault into 7 different types. The end goal is to train several machine Learning Algorithms for automatic pattern recognition.
Implementation of DCGAN on Fish Dataset
Vision Transformers: relative and absolute depth estimation