Logo
IDARE Enterprise AI predictive analytics platform background
Use Case

Predicting Air Quality and Pollution Levels

Identifying pollution hotspots to support targeted interventions for improved public health and sustainability.

1Overview & Strategic Importance

Predicting Air Quality and Pollution Levels
Classification Solution Environment Data

Problem Statement

Air pollution is a critical challenge worldwide, with significant implications for public health, environmental sustainability, and urban living conditions. Assessing and predicting air quality levels is essential for policymakers and environmental agencies to implement effective strategies for pollution control. Key factors like temperature, humidity, particulate matter levels (PM2.5 and PM10), and concentrations of gases such as NO2, SO2, and CO contribute to air quality. Additionally, proximity to industrial areas and population density play a significant role in regional pollution levels. Accurate prediction of air quality levels can help identify pollution hotspots, plan interventions, and protect vulnerable populations from the adverse effects of air pollution.

Required Solutions

  • Developing an automated system using machine learning models to predict air quality levels based on historical environmental and demographic data.
  • Analyzing critical factors such as particulate matter (PM2.5 and PM10), NO2, SO2, CO levels, temperature, humidity, proximity to industrial zones, and population density.
  • Providing actionable insights to optimize urban planning, enforce environmental regulations, and issue timely public health advisories.

Solution Objectives

  • Perform exploratory data analysis to understand the relationships between environmental and demographic factors and air quality levels.
  • Build an ML classification model to predict air quality levels (Good, Moderate, Poor, Hazardous).
  • Conduct scenario analysis to evaluate the impact of changing environmental conditions on air quality.
  • Identify critical factors influencing air quality for targeted interventions.

Understanding the Problem

The complexity of air pollution arises from the interplay of various environmental and demographic factors. Fine particulate matter (PM2.5) and coarse particulate matter (PM10) are known to have severe health impacts.

Gaseous pollutants such as NO2, SO2, and CO further exacerbate air quality issues, especially in densely populated or industrial regions. Machine learning models can integrate these diverse factors to provide accurate and actionable predictions of air quality levels.

2About the Data

Data Collection

The dataset comprises 5000 samples collected from multiple regions, capturing key environmental and demographic metrics affecting air quality. Data was gathered through a combination of automated sensors, satellite observations, and manual validation by environmental experts.

Major Parameters Description

Download Training Data
Temperature

Average temperature of the region in °C

Humidity

Relative humidity recorded in the region (%)

PM2.5

Fine particulate matter (PM2.5) concentration in µg/m³

PM10

Coarse particulate matter (PM10) concentration in µg/m³

NO2

Nitrogen dioxide (NO2) concentration in ppb

SO2

Sulfur dioxide (SO2) concentration in ppb

CO

Carbon monoxide (CO) concentration in ppm

Proximity_to_Industrial_Areas

Distance to the nearest industrial zone in km

Population_Density

Number of people per square kilometer in the region

3Using iDareAI

Guided Mode Initialization

AUploading Dataset

Click on the **'Upload CSV or Excel Data'** button → Select a source for the dataset → Upload `air_quality_train.csv`. The system automatically analyzes the file, extracts column descriptions, and identifies the top value-adding targets for prediction.

Upload UI

BChoosing Analysis Mode

Choose between autonomous machine learning or manual building. In autonomous mode, simply ask a question like:
  • What changes can improve air quality based on the patterns in this data?
  • Which factors in the data have the biggest impact on air quality?

Operation Using Autonomous Guided Mode

AQuery Response

To improve air quality based on the patterns in this data, it is essential to implement changes that reduce the concentrations of harmful pollutants such as PM2.5, NO2, and CO. Strategies could include enhancing vehicular emissions standards, increasing green spaces, and regulating industrial emissions. The Random Forest model demonstrated exceptional accuracy of 95%.

Auto Analysis

BAI Application

In automated mode, running the query solves the problem for you step by step and generates the AI application. Users can adjust sliders for key variables and see how changes impact the predicted outcome in real-time.

Auto Application

Model Fine-Tuning/Manual Model Building

ASelecting Prediction Target

Analyzing the automated response to the query generated from the problem statement, the 'Target' column was selected as the target.

Target Selection

BSelecting Analysis Type

The analysis target is a categorical column. Hence, the 'Classification' analysis type is selected.

Analysis Type

CSelecting Model Group/Item

Model Group

DSelecting Features

Select the following features: Temperature, Humidity, NO2, CO, SO2, Population_Density, and Proximity_to_Industrial_Areas.

Feature Selection

ESelecting Training Level

Training Level

AI Modeling Details

The automated model selection process identified Decision Tree (DT) and Xtreme Gradient Boosting (XGB) as the most suitable machine learning models. XGB was determined to be the best-performing model, achieving the highest F1 score of 95%.

Modeling Details

Training Analysis Details

APredicted Air Quality

Predicted Target

BROC AUC

ROC AUC

CError Trend

Error Trend

DFeature Importance

Feature Importance

Finalize Models

Once satisfied with performance, click 'Deploy'. The system saves and deploys models for future demand analysis or production environment.

Finalize Models

4AI APPLICATION

Manual Model Building

In Manual Training Mode, users can modify sliders for variables like CO, NO2, and Proximity to Industrial Areas. Clicking ‘Update Response’ triggers an updated analysis tailored to the selected feature values.

Manual App

AI Application Demo

By adjusting the sliders or entering custom values, lower levels of "CO" and "SO2," along with increased distance from industrial areas, tend to result in a "Good" air quality prediction, whereas higher concentrations yield "Hazardous" outcomes.

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

Interested in similar AI solutions?

Explore our full suite of AI capabilities designed to transform your business operations.