
Climate Engineering Training
Master the science, engineering, and governance of deliberate climate intervention. This comprehensive training covers solar radiation management, carbon dioxide removal, climate modelling, and strategic deployment planning. Build the technical and regulatory expertise needed to work at the frontier of one of the most consequential fields in modern science.
What you'll learn:
You will gain a rigorous understanding of the two primary branches of climate engineering: solar radiation management and carbon dioxide removal. The course covers Earth's climate system, intervention mechanisms, and how to use climate models to simulate and evaluate real-world scenarios. You will develop structured environmental risk assessment skills, including analysis of termination shock and cascading hazards. Governance modules teach international environmental law, compliance monitoring, and multi-stakeholder coordination. You will also learn experimental design for field trials, strategic deployment planning, and science communication for technical and policy audiences.
How you study in practice Climate Engineering Training
How you practise Climate Engineering Training
For businesses looking to train their team
With Elevify for businesses, 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 Climate Engineering
Foundations of Climate Engineering
Lesson 1 • History of Climate Intervention Ideas
Traces proposals from early weather modification to modern geoengineering research programmes. Contextualises current practice within decades of scientific debate.
Lesson 2 • Defining Climate Engineering
Clarifies the distinction between mitigation, adaptation, and deliberate climate intervention. Provides the conceptual framework used throughout the course.
Lesson 3 • Major Intervention Categories
Surveys solar radiation management and carbon dioxide removal as the two primary branches. Establishes categorical distinctions used in all subsequent chapters.
Lesson 4 • Earth's Climate System Basics
Covers energy balance, radiative forcing, and feedback loops as physical foundations. Connects atmospheric science to intervention design logic.
Lesson 5 • Drivers and Rationale for Intervention
Examines climate risk scenarios that motivate engineering responses and the logic of last-resort framing. Prepares students to evaluate deployment justifications critically.
Chapter 2HideHide detailsSee detailsSolar Radiation Management Techniques
Solar Radiation Management Techniques
Lesson 1 • Comparing SRM Approaches
Synthesises efficiency, cost, reversibility, and risk profiles across all SRM methods. Builds analytical skills for technique selection in applied contexts.
Lesson 2 • Space-Based Reflectors
Assesses orbital mirror and sunshade concepts for intercepting solar radiation before atmospheric entry. Evaluates engineering feasibility and cost barriers.
Lesson 3 • Stratospheric Aerosol Injection
Explains particle selection, injection altitude, and dispersion dynamics for aerosol-based cooling. Anchors the chapter's most studied and debated technique.
Lesson 4 • Surface Albedo Modification
Examines land and ocean surface treatments that increase reflectivity at local and regional scales. Illustrates scalability limits compared to stratospheric methods.
Lesson 5 • Marine Cloud Brightening
Covers sea-salt aerosol seeding to increase low-cloud reflectivity over ocean regions. Connects cloud microphysics to regional cooling potential.
Chapter 3HideHide detailsSee detailsCarbon Dioxide Removal Methods
Carbon Dioxide Removal Methods
Lesson 1 • Ocean-Based Carbon Removal
Surveys ocean iron fertilisation, alkalinity enhancement, and kelp farming as marine CDR pathways. Addresses measurement challenges in open-ocean systems.
Lesson 2 • Enhanced Weathering and Mineralisation
Covers accelerated silicate rock weathering and basalt spreading as geological CDR approaches. Evaluates co-benefits for soil health and agricultural productivity.
Lesson 3 • Direct Air Carbon Capture
Examines chemical sorbent and solid-state systems that extract CO2 directly from ambient air. Connects energy requirements to deployment economics.
Lesson 4 • Afforestation and Reforestation
Covers carbon sequestration through tree planting at scale, including land-use constraints and co-benefits. Establishes the biological CDR baseline.
Lesson 5 • Bioenergy with Carbon Capture
Explains BECCS as a negative-emissions energy system combining biomass combustion with geological storage. Highlights land, water, and food security tradeoffs.
Chapter 4HideHide detailsSee detailsClimate Modelling for Engineers
Climate Modelling for Engineers
Lesson 1 • Simulating CDR Interventions
Explains how to represent land-use change, ocean fertilisation, and DAC drawdown in models. Links CDR simulation to carbon budget tracking.
Lesson 2 • Climate Model Architecture
Introduces general circulation models, Earth system models, and reduced-complexity models. Establishes the modelling toolkit used throughout applied simulation work.
Lesson 3 • Interpreting Regional Climate Impacts
Focuses on downscaling global model outputs to assess regional precipitation, temperature, and extreme events. Builds skills for impact-focused reporting.
Lesson 4 • Uncertainty Quantification
Teaches methods for characterising model uncertainty, sensitivity analysis, and ensemble spread. Prepares students to communicate confidence levels to decision-makers.
Lesson 5 • Simulating SRM Interventions
Covers how to configure aerosol forcing, cloud seeding, and albedo changes in model experiments. Connects simulation design to physical mechanism understanding.
Chapter 5HideHide detailsSee detailsEnvironmental Risk Assessment
Environmental Risk Assessment
Lesson 1 • Risk Assessment Frameworks
Introduces hazard identification, exposure assessment, and consequence analysis adapted for climate interventions. Establishes the structured methodology used in all assessments.
Lesson 2 • Hydrological and Ecosystem Risks
Covers monsoon disruption, drought intensification, and biodiversity impacts from altered radiation and precipitation. Links physical changes to ecological consequences.
Lesson 3 • Termination Shock Analysis
Analyses the rapid warming rebound risk if SRM deployment is abruptly halted. Develops contingency planning skills for sustained intervention programmes.
Lesson 4 • Atmospheric and Chemical Risks
Examines ozone depletion, acid deposition, and aerosol toxicity as chemical hazards of SRM deployment. Connects atmospheric chemistry to human and ecosystem health.
Lesson 5 • Cumulative and Cascading Risks
Addresses interactions between multiple simultaneous interventions and compounding risk pathways. Prepares students to assess system-level rather than isolated hazards.
Chapter 6HideHide detailsSee detailsGovernance and Regulatory Frameworks
Governance and Regulatory Frameworks
Lesson 1 • National and Regional Oversight
Examines how domestic environmental impact assessment and permitting processes apply to field trials. Connects international obligations to national implementation.
Lesson 2 • Compliance Monitoring and Enforcement
Covers verification protocols, independent auditing, and enforcement mechanisms for intervention programmes. Builds practical compliance management skills.
Lesson 3 • International Environmental Law Basics
Covers treaty obligations, customary international law, and the no-harm principle as applied to transboundary interventions. Establishes the legal baseline for governance analysis.
Lesson 4 • Governance Design Principles
Introduces adaptive governance, precautionary principle, and inclusive decision-making as design criteria. Prepares students to evaluate and propose governance architectures.
Lesson 5 • Existing Governance Instruments
Surveys ocean dumping conventions, aviation agreements, and biodiversity frameworks relevant to CDR and SRM. Maps current regulatory coverage and gaps.
Chapter 7HideHide detailsSee detailsField Research and Experimental Design
Field Research and Experimental Design
Lesson 1 • Experimental Design Principles
Teaches randomisation, control conditions, statistical power, and confound management for outdoor experiments. Connects design rigour to result validity.
Lesson 2 • Data Analysis and Reporting
Teaches statistical analysis, uncertainty reporting, and peer-review-ready documentation of field trial results. Closes the research cycle from data to publication.
Lesson 3 • Deployment Logistics and Safety
Addresses aircraft, vessel, and ground-based deployment operations, including safety protocols and contingency planning. Prepares students for operational field management.
Lesson 4 • Instrumentation and Measurement
Covers sensor selection, calibration, remote sensing integration, and data quality assurance for field campaigns. Ensures measurement reliability across diverse environments.
Lesson 5 • Research Ethics and Approval
Covers ethical review processes, informed consent for affected communities, and responsible research norms. Establishes the ethical foundation before any field activity.
Chapter 8HideHide detailsSee detailsStrategic Deployment Planning
Strategic Deployment Planning
Lesson 1 • Stakeholder Engagement Strategy
Covers mapping affected parties, designing participation processes, and managing conflict in deployment planning. Integrates social legitimacy into technical planning.
Lesson 2 • Multi-Method Portfolio Design
Teaches how to combine SRM and CDR methods into a coherent portfolio that balances speed, permanence, and risk. Develops systems-level planning competency.
Lesson 3 • Scenario Development and Target Setting
Covers climate scenario selection, temperature and carbon targets, and intervention objective framing. Anchors all subsequent planning in quantified goals.
Lesson 4 • Adaptive Management and Exit Planning
Develops monitoring-triggered decision rules, phasedown protocols, and exit strategies for long-term programmes. Ensures plans remain responsive to new evidence.
Lesson 5 • Technology Readiness and Scaling
Applies technology readiness level frameworks to assess maturity and scale-up pathways for chosen methods. Connects lab and field results to deployment timelines.

Your valid completion certificate
This course is for you:
Atmospheric scientist: seeking applied expertise in deliberate intervention methods and deployment.
Environmental policy analyst: needing technical grounding to evaluate geoengineering proposals credibly.
Civil or systems engineer: looking to pivot into large-scale climate programme management.
Climate NGO professional: wanting rigorous knowledge to engage funders and policymakers effectively.
Graduate researcher: building a specialisation in climate intervention science or governance.
Science journalist or communicator: covering geoengineering and needing deep technical literacy fast.
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