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Use Case

Predicting Water Quality for Safe Consumption

Ensuring water safety by predicting water quality based on chemical composition, environmental factors, and contamination levels.

1Overview & Strategic Importance

Predicting Water Quality for Safe Consumption
Classification Solution Public Health

Problem Statement

Ensuring safe and clean water for consumption is a critical public health priority. Contaminated water can carry harmful substances such as bacteria, heavy metals, and chemical pollutants. Traditional laboratory methods can be time-consuming and costly. A predictive model capable of assessing water quality based on key chemical and physical parameters can monitor contamination levels more efficiently, allowing for proactive interventions.

Required Solutions

  • Analyzing historical water quality data to identify key parameters affecting safety.
  • Developing classification models to categorize water samples as safe or unsafe for consumption.
  • Providing an efficient and scalable solution for real-time water quality assessment.

Solution Objectives

  • Perform exploratory data analysis to understand relationships between water indicators.
  • Develop classification models to predict water safety based on composition.
  • Provide insights for policymakers and water treatment facilities in monitoring efforts.

Understanding the Problem

Water quality is influenced by factors like pH, dissolved oxygen, and turbidity. Excessive pollutants can cause severe health problems.
Machine learning models assist in identifying patterns and predicting contamination levels. While valuable, these models complement rather than replace laboratory testing.

2About the Data

Data Collection

This dataset consists of water quality measurements in an urban environment. It is recommended for educational purposes to acquire knowledge in environmental monitoring and predictive analytics.

Major Water Quality Indicators

Download Training Data
pH

The measure of acidity or alkalinity of water, which affects its suitability for consumption and aquatic life.

Turbidity

The cloudiness or haziness of water caused by suspended particles, which impacts water quality and treatment efficiency.

Dissolved Oxygen

The amount of oxygen dissolved in water, essential for aquatic life and an indicator of water purity.

Conductivity

The ability of water to conduct electricity, which reflects the presence of dissolved salts and minerals.

Total Dissolved Solids (TDS)

The concentration of dissolved substances in water, affecting its taste and potability.

Chlorine

A disinfectant commonly added to water supplies to eliminate harmful bacteria and pathogens.

Nitrate

A chemical compound that can contaminate water due to agricultural runoff and pose health risks at high levels.

Sulfate

A naturally occurring mineral in water that, in high concentrations, can affect taste and health.

Hardness

A measure of calcium and magnesium levels in water, which impacts household plumbing and soap efficiency.

3Using iDareAI

Guided Mode Initialization

AUploading Dataset

Click on the **'Upload CSV or Excel Data'** button → Select a source for the dataset → Upload `water_quality_train.xlsx`. The system automatically analyzes the file for environmental feature extraction.

Excel Selection
Upload UI

BChoosing Analysis Mode

Choose between autonomous machine learning or manual building. In autonomous mode, ask a question like:
  • Which chemicals must be monitored in a water for it to be safe?
  • Which factors play the most important role in the safety of water?

Operation Using Autonomous Guided Mode

AQuery Response

The Random Forest model demonstrated the best performance with 97% accuracy. It identified bacterial and arsenic concentrations as significant safety influencers.

Auto Analysis

BAI Application

The system generates an automated interface with sliders to explore scenarios. The Random Forest model is categorized as comfortably usable for environmental assessments.

Auto Application

Model Fine-Tuning/Manual Model Building

ASelecting Prediction Target

'is_safe' was selected as the target column.

Target Selection

BSelecting Analysis Type

Categorical classification (0 or 1) is selected to distinguish safe from unsafe water.

Analysis Type

CSelecting Model Group/Item

Model Group

DSelecting Features

Select indicators such as aluminium, arsenic, bacteria, lead, and nitrates.

Feature Selection

ESelecting Training Level

Training Level

AI Modeling Details

Random Forest achieved 85% accuracy using 5-fold cross-validation. While identifying patterns effectively, the model's performance suggests the need for ongoing regional data updates.

Modeling Details

Training Analysis Details

APredicted Target (Confusion Matrix)

Confusion Matrix

BROC AUC

ROC Curve

CError Trend (F1 Score)

F1 Trend

DFeature Importance

Feature Importance

Finalize Models

Customize configurations and train until Accuracy is optimized. Once satisfied, click 'Deploy' to launch your AI application.

Finalize Models

4AI APPLICATION

Manual Model Building

In Manual Training Mode, users can modify sliders for variables like cadmium and perchlorate. Clicking ‘Get Response’ generates a tailored water safety prediction.

Manual App

AI Application Demo

  1. Adjust water quality variables like 'aluminium' and 'arsenic'.
  2. Observe how different levels of contaminants influence safety classification in real-time.

Saving the Project

Save your project by clicking the icon at the bottom left corner of the textbox.

Saving

Sharing the Project

Share the application for single on-demand predictions once the analysis is saved.

Sharing

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