
Air Pollution Course
Master the science, measurement, and management of air pollution from the ground up. This course takes you from atmospheric chemistry and emission sources to dispersion modeling, control technologies, and regulatory compliance. Whether you work in environmental consulting, public health, or industry, you'll gain the technical depth to make a real impact on air quality outcomes.
What you will learn:
You will build a thorough understanding of how air pollutants form, travel, and affect human health and ecosystems. You will learn to design and evaluate monitoring networks, apply dispersion models, and interpret emission inventories. The course covers pollution control technologies for both stationary and mobile sources, along with the regulatory frameworks that govern them. You will also explore environmental health risk assessment, climate interactions, and environmental justice considerations. By the end, you will be equipped to lead air quality management programs and communicate findings to technical and non-technical audiences alike.
How you study in practice Air Pollution Course
How you practice Air Pollution Course
For companies that want to train their team
With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Air Pollution Science
Foundations of Air Pollution Science
Lesson 1 • Defining Air Pollution and Its Scope
Introduces the concept of air pollution, distinguishing natural from anthropogenic sources. Provides the conceptual baseline for all subsequent technical content.
Lesson 2 • Major Pollutant Categories
Classifies primary and secondary pollutants by chemical family and physical form. Connects pollutant identity to formation pathways covered in later chapters.
Lesson 3 • Atmospheric Structure and Dynamics
Covers tropospheric and stratospheric layers and how meteorology drives pollutant transport. Builds physical intuition needed for dispersion modeling later.
Lesson 4 • Chemical Reactions in the Atmosphere
Explains photochemical cycles, oxidation reactions, and aerosol formation. Grounds students in the chemistry required to understand secondary pollutant formation.
Lesson 5 • Key Emission Inventories and Metrics
Introduces emission factor methodology and inventory construction. Students gain ability to interpret and compare pollution data across sectors.
Chapter 2HideHide detailsSee detailsPollution Sources and Emission Processes
Pollution Sources and Emission Processes
Lesson 1 • Indoor Air Pollution Sources
Identifies building materials, combustion appliances, and occupant activities as indoor sources. Prepares students to assess exposure in enclosed environments.
Lesson 2 • Agricultural and Biogenic Sources
Addresses ammonia, methane, and VOC emissions from farming and natural ecosystems. Broadens source understanding beyond industrial contexts.
Lesson 3 • Industrial and Manufacturing Emissions
Covers process emissions from smelting, chemical production, and cement manufacturing. Students learn to identify sector-specific pollutant signatures.
Lesson 4 • Mobile Source Emissions
Analyzes road, aviation, and marine transport as emission sources. Connects vehicle technology and fuel type to real-world pollutant output.
Lesson 5 • Combustion Sources and Processes
Examines fuel combustion chemistry and the pollutants it generates across energy and transport sectors. Directly links source type to emission profile.
Chapter 3HideHide detailsSee detailsHealth and Environmental Impacts
Health and Environmental Impacts
Lesson 1 • Ecosystem and Biodiversity Impacts
Covers acid deposition, eutrophication, and ozone damage to vegetation and aquatic systems. Connects atmospheric chemistry to ecological outcomes.
Lesson 2 • Toxic and Carcinogenic Pollutants
Examines hazardous air pollutants including benzene, dioxins, and heavy metals. Students learn to classify toxicity and identify vulnerable populations.
Lesson 3 • Respiratory and Cardiovascular Health Effects
Links specific pollutants to pulmonary and cardiac pathology using epidemiological evidence. Establishes the health rationale for pollution control standards.
Lesson 4 • Climate Interactions and Forcing
Explains how aerosols, ozone, and short-lived climate pollutants alter radiative forcing. Bridges air quality and climate change disciplines.
Lesson 5 • Exposure Assessment Fundamentals
Introduces methods for estimating human exposure from ambient concentrations. Provides the analytical foundation for risk assessment in later chapters.
Chapter 4HideHide detailsSee detailsAir Quality Monitoring and Measurement
Air Quality Monitoring and Measurement
Lesson 1 • Monitoring Network Design
Covers siting criteria, spatial representativeness, and network objectives. Students learn to design monitoring systems that meet regulatory and research goals.
Lesson 2 • Remote Sensing and Satellite Data
Introduces satellite retrievals and ground-based remote sensing for large-scale assessment. Expands monitoring capability beyond fixed ground stations.
Lesson 3 • Reference Methods for Criteria Pollutants
Details gravimetric, chemiluminescent, and UV photometric reference analyzers. Connects instrument principles to the pollutants each method targets.
Lesson 4 • Continuous and Real-Time Monitoring
Examines continuous analyzers, optical sensors, and data telemetry systems. Prepares students to operate and maintain real-time monitoring infrastructure.
Lesson 5 • Low-Cost Sensors and Citizen Science
Evaluates electrochemical and optical low-cost sensors for supplementary monitoring. Addresses accuracy limitations and appropriate use cases.
Chapter 5HideHide detailsSee detailsAtmospheric Dispersion Modeling
Atmospheric Dispersion Modeling
Lesson 1 • Meteorological Data for Modeling
Explains surface and upper-air data processing for model inputs. Ensures students can prepare and quality-check meteorological datasets.
Lesson 2 • Model Evaluation and Uncertainty
Applies statistical performance metrics to assess model accuracy. Students learn to communicate model limitations and uncertainty to decision-makers.
Lesson 3 • Fundamentals of Dispersion Theory
Derives Gaussian plume equations and explains stability class frameworks. Provides the theoretical core on which all practical modeling builds.
Lesson 4 • Regulatory Dispersion Models
Covers steady-state and advanced regulatory models used in permitting. Students learn model selection criteria and input data requirements.
Lesson 5 • Photochemical and Receptor Models
Introduces Eulerian grid models and source apportionment receptor techniques. Extends modeling capability to secondary pollutants and source attribution.
Chapter 6HideHide detailsSee detailsAir Quality Standards and Regulatory Frameworks
Air Quality Standards and Regulatory Frameworks
Lesson 1 • Emission Limit Setting and Permitting
Covers best available technology requirements and permit application processes. Connects technical emission limits to facility-level compliance obligations.
Lesson 2 • Attainment Designation and Planning
Describes how areas are classified by attainment status and how plans are developed. Students learn the planning cycle from designation to demonstrated compliance.
Lesson 3 • International Agreements and Protocols
Reviews transboundary pollution agreements and global air quality governance. Situates national regulation within the broader international policy landscape.
Lesson 4 • Ambient Air Quality Standards
Explains how health-based and welfare-based standards are derived and structured. Students understand the scientific basis and policy intent behind numeric limits.
Lesson 5 • Market-Based and Incentive Instruments
Analyzes cap-and-trade, emission trading, and pollution tax mechanisms. Provides economic policy tools that complement command-and-control regulation.
Chapter 7HideHide detailsSee detailsPollution Control Technologies
Pollution Control Technologies
Lesson 1 • Control System Performance and Cost
Applies efficiency metrics, cost-effectiveness analysis, and life-cycle costing to control selection. Prepares students to justify technology choices to management.
Lesson 2 • Particulate Matter Control Devices
Covers cyclones, fabric filters, electrostatic precipitators, and wet scrubbers. Students learn operating principles, efficiency factors, and selection criteria.
Lesson 3 • Gaseous Pollutant Control Methods
Examines absorption, adsorption, and thermal oxidation for VOC and acid gas removal. Connects control chemistry to achievable emission reduction levels.
Lesson 4 • NOx and SOx Control Strategies
Details combustion modification, selective catalytic reduction, and flue gas desulfurization. Addresses the dominant pollutants from large combustion sources.
Lesson 5 • Mobile Source Emission Controls
Reviews catalytic converters, diesel particulate filters, and fuel reformulation. Links vehicle technology evolution to achieved emission reductions.
Chapter 8HideHide detailsSee detailsAir Quality Management and Strategic Planning
Air Quality Management and Strategic Planning
Lesson 1 • Source Apportionment and Priority Setting
Uses receptor modeling and emission inventory analysis to rank sources by impact. Enables evidence-based prioritization of control investments.
Lesson 2 • Air Quality Management System Design
Frames the plan-do-check-act cycle applied to air quality governance. Students learn to structure management systems that link data to decisions.
Lesson 3 • Industrial Facility Compliance Programs
Builds facility-level compliance management including auditing and corrective action. Translates regulatory requirements into operational procedures.
Lesson 4 • Urban Air Quality Action Planning
Develops integrated urban plans combining transport, energy, and land-use measures. Addresses the complexity of multi-source urban pollution management.
Lesson 5 • Evaluating Program Effectiveness
Applies trend analysis and attribution methods to assess whether interventions reduced pollution. Closes the management cycle with evidence-based review.
Your valid completion certificate
This course is for you:
Environmental engineers seeking deeper expertise in air quality assessment.
Public health professionals wanting to connect pollution data to community outcomes.
Urban planners aiming to incorporate air quality into city development decisions.
Recent science graduates looking to specialize in atmospheric or environmental fields.
Industrial compliance officers needing stronger technical grounding in emission management.
Career changers from chemistry or meteorology transitioning into environmental practice.
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