β‘ Concrete Strength Trend Analysis using Power Transfer Concept (Machine Learning) π Overview
This project applies Machine Learning trend analysis on concrete_data.csv, inspired by the Power Transfer concept in engineering. Just as power is transferred efficiently from source to load, information is transferred from input features to output predictions through an ML model, aiming for maximum efficiency with minimum loss.
π§ Power Transfer Analogy Power System Machine Learning Input Power Raw Concrete Data Transformer ML Model Losses Prediction Errors Output Power Concrete Strength Efficiency Model Accuracy π Dataset
Target: Concrete Compressive Strength (MPa)
Input Features:
Cement Blast Furnace Slag Fly Ash Water Superplasticizer Coarse Aggregate Fine Aggregate Age (days)
π― Objective
Analyze strength trends Transfer maximum predictive power Reduce error losses Improve model efficiency
π ML Power Transfer Pipeline Data Input β Cleaning β EDA β Feature Engineering β Model Training β Loss Minimization β Prediction
π Trend Insights
Cement & Age β Strong positive power transfer Water β Power loss Superplasticizer β Efficiency booster Slag & Fly Ash β Long-term strength gain
π€ Models Used
Linear Regression Ridge & Lasso Regression Decision Tree Random Forest (Best Performer) Best Model: Random Forest Regressor
High RΒ² score Low RMSE Stable predictions
Useful Prediction Total Input Information Γ 100 Efficiency= Total Input Information Useful Prediction Γ100
Lower loss β Higher efficiency
π οΈ Tools & Technologies
Python NumPy, Pandas Matplotlib, Seaborn Scikit-Learn Jupyter Notebook
ποΈ Applications
Construction quality prediction Material optimization Structural safety analysis