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AI ยท Moderate ยท Video-based learning

AI for Air Quality Monitoring: Predictive Models for Urban Health

Harness AI to Monitor, Predict, and Mitigate Urban Air Pollution for Healthier Cities.

โ˜… 4.2 (26 ratings)Access 24/7 ยท 365 daysVideo lectures of 3+ hrsCertificate
Registration open

About This Course

This 3-day hands-on workshop focuses on using AI and machine learning techniques to monitor and predict air quality in urban environments. Participants will explore the impact of pollutants on health, use various data sources (IoT sensors, satellite data, etc.), and build predictive models to forecast air quality. Additionally, participants will learn how to design pollution mitigation strategies and visualize air quality data through dashboards to inform urban health improvements.

Aim

To equip participants with the skills to build AI-driven models for air quality forecasting and develop pollution mitigation strategies to improve urban health outcomes.

Course Objectives

  • Understand the impact of key air pollutants (PM2.5, NOx, SOโ‚‚, CO) on urban health.
  • Learn about various data collection sources for air quality monitoring (IoT sensors, monitoring stations, satellite data).
  • Preprocess historical air quality data for analysis (handling missing data, time-series alignment, and spatial resolution).
  • Build predictive models using AI techniques (ARIMA, LSTM, Random Forest) to forecast air quality levels.
  • Apply machine learning model evaluation techniques (RMSE, MAE) to assess prediction accuracy.
  • Develop pollution mitigation strategies and real-time air quality prediction dashboards for urban health improvement.
  • Create geographic risk maps to identify areas with high pollution and health risks.
Next: Syllabus โ†’

Syllabus

๐Ÿ“… Day 1 โ€” Understanding Air Quality and Data Collection

  • Air quality and health: Impact of pollutants (PM2.5, NOx, SOโ‚‚, CO) on urban health outcomes
  • Data collection sources: IoT sensors, monitoring stations, satellite data, and environmental variables
  • Data preprocessing: Handling missing data, time-series alignment, and spatial resolution adjustments
  • Hands-on: Import, clean, and preprocess historical air quality data (temperature, pollutants) using Python (Pandas, NumPy)

๐Ÿ“… Day 2 โ€” Building Predictive Models for Real-Time Air Quality Forecasting

  • Modeling air quality prediction: Regression and time-series forecasting (ARIMA, LSTM, Random Forest)
  • Feature engineering: Using environmental data (weather, traffic, pollution history) to enhance prediction models
  • Model evaluation: Using RMSE, MAE, and other metrics to evaluate model performance
  • Hands-on: Build and train a machine learning model to predict air quality levels using environmental data. Evaluate model accuracy

๐Ÿ“… Day 3 โ€” AI Tools for Pollution Mitigation and Urban Health Improvement

  • Pollution mitigation strategies: Using AI to design action plans for air quality improvement
  • Visualization and decision support: Real-time air quality prediction, pollution mitigation, and health risk alerts
  • Geographic risk mapping: Identifying areas with high pollution and health risks
  • Hands-on: Build an interactive dashboard to visualize real-time air quality predictions and suggest mitigation strategies. Implement geographic risk mapping for pollution hotspots

Who Should Enrol?

  • Researchers, environmental engineers, urban planners, policy makers, and data scientists working in air quality, health, or urban sustainability.
  • Basic knowledge of Python and machine learning concepts is helpful but not required.
  • Participants should be interested in using AI to improve urban health and sustainability.

Course Outcomes

  • Clean, preprocess, and prepare historical air quality data for analysis using Python (Pandas, NumPy).
  • Build and evaluate machine learning models (ARIMA, LSTM, Random Forest) for predicting air quality.
  • Apply feature engineering techniques to enhance prediction accuracy using environmental data.
  • Create an interactive dashboard for real-time air quality predictions, mitigation strategies, and health risk alerts.
  • Use geographic mapping tools to identify pollution hotspots and assess health risks in urban areas.
Next: Fees โ†’

Course fee

Learners in India

โ‚น2,499

Learners outside India

$50

  • Video lectures
  • Study material
  • Certificate after completion
  • 365-day access

Enrol in the course

The recordings are being uploaded. They appear in your dashboard as soon as they are ready, and we will e-mail you then.

Next: FAQ โ†’

Frequently asked questions

How is this course taught?

Through recorded video lectures from the original live workshop, with the study material. Watch at your own pace, any time.

How long do I have access?

365 days from your registration, on your NanoSchool dashboard.

Do I get a certificate?

Yes, an e-certificate after completion, with a QR code anyone can verify and an "Add to LinkedIn" button.

How can I pay?

By card, UPI or PayPal on the payment page; international bank transfer is also available there.

What is the refund policy?

See our Returns, Refunds & Cancellation policy: Returns, Refunds & Cancellation policy

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