Description

This curriculum spans the technical, operational, and organizational complexities of carbon accounting in energy systems, comparable in scope to a multi-phase advisory engagement supporting enterprise-scale decarbonization across generation, procurement, and infrastructure.

Module 1: Foundations of Carbon Accounting in Energy Systems

Selecting appropriate carbon accounting standards (e.g., GHG Protocol Scope 1, 2, 3) based on regulatory jurisdiction and organizational boundaries.
Mapping energy asset portfolios to emission source categories, including owned generation, PPAs, and grid-supplied power.
Establishing baseline year emissions with adjustments for operational changes, M&A activity, and divestitures.
Resolving inconsistencies in emission factors across regional grid databases (e.g., IEA, EPA, ENTSO-E).
Handling data gaps in historical energy consumption through interpolation and proxy modeling with documented uncertainty ranges.
Defining system boundaries for co-generation and multi-product facilities to allocate emissions fairly across outputs.
Integrating carbon accounting into enterprise resource planning (ERP) systems for continuous data flow.
Validating third-party energy data providers for accuracy, latency, and geographic coverage.

Module 2: Grid Emissions and Location-Based vs. Market-Based Accounting

Choosing between location-based and market-based emission factors for Scope 2 reporting under GHG Protocol.
Calculating time-varying grid marginal emissions for demand response and load shifting assessments.
Assessing the credibility and retirement status of renewable energy certificates (RECs) and Guarantees of Origin (GOs).
Modeling temporal correlation between renewable generation and consumption for hourly matching claims.
Implementing 24/7 carbon-free energy (CFE) targets with granular grid data and storage dispatch modeling.
Negotiating power purchase agreements (PPAs) with geographic and temporal delivery constraints to improve CFE alignment.
Reconciling regional grid mix data with actual procurement through utility-level fuel mix disclosures.
Addressing double counting risks in corporate renewable procurement within shared balancing authorities.

Module 3: Decarbonization Pathways for Generation Assets

Evaluating retrofit feasibility of existing fossil-fuel plants with CCS, hydrogen co-firing, or efficiency upgrades.
Comparing levelized cost of electricity (LCOE) and emissions reduction potential across technology options (e.g., wind, solar, nuclear, geothermal).
Modeling capacity value and grid reliability impacts of retiring dispatchable thermal assets.
Assessing stranded asset risk in long-lived generation infrastructure under tightening carbon budgets.
Designing phase-out schedules for coal and gas plants aligned with science-based targets (SBTi).
Integrating flexibility requirements (ramping, inertia) into renewable-heavy generation planning.
Conducting environmental impact assessments for new transmission needed to support remote renewables.
Optimizing hybrid plant configurations (e.g., solar + storage) for capacity firming and grid services.

Module 4: Carbon Footprinting of Energy Storage and Flexibility

Attributing upstream emissions from battery manufacturing (e.g., NMC, LFP) to storage dispatch cycles.
Allocating emissions across charge and discharge events in time-of-use and arbitrage applications.
Modeling round-trip efficiency losses and their impact on net carbon intensity of stored electricity.
Assessing grid emission factors at charge vs. discharge times for dynamic footprinting of storage operations.
Accounting for degradation and end-of-life impacts in lifecycle assessments of storage systems.
Integrating storage into corporate CFE goals with time-matched renewable charging requirements.
Calculating avoided emissions from storage-enabled deferral of fossil peaker plant operation.
Standardizing emissions reporting for virtual power plants aggregating distributed assets.

Module 5: Methane and Fugitive Emissions in Gas Infrastructure

Implementing LDAR (Leak Detection and Repair) programs with quantified emission reduction baselines.
Integrating satellite and aerial methane data (e.g., GHGSat, MethaneSAT) into asset-level inventories.
Adjusting carbon footprints for upstream methane leakage rates in natural gas supply chains.
Applying global warming potentials (GWP-20 vs GWP-100) in reporting based on time horizon relevance.
Assessing the climate impact of venting vs flaring practices in upstream and midstream operations.
Conducting lifecycle analysis of gas infrastructure to compare with electrification alternatives.
Setting methane intensity targets and linking them to executive compensation and capital allocation.
Validating third-party methane monitoring technologies for accuracy and operational feasibility.

Module 6: Carbon Management in Power Purchase Agreements and Energy Markets

Drafting PPA clauses that specify carbon content of delivered electricity and verification mechanisms.
Structuring synthetic PPAs with carbon adders or penalties tied to emission performance.
Modeling carbon costs under evolving emissions trading schemes (EU ETS, RGGI, CA Cap-and-Trade).
Assessing carbon leakage risks in cross-border electricity trading and contract attribution.
Integrating carbon intensity into procurement decisions beyond price and availability.
Designing internal carbon pricing mechanisms to guide investment and trading behavior.
Tracking and reporting embodied carbon in grid-connected infrastructure projects.
Aligning short-term energy market bids with long-term decarbonization objectives.

Module 7: Digital Infrastructure and Data Systems for Carbon Tracking

Selecting metering granularity (sub-hourly vs. monthly) based on reporting objectives and data infrastructure.
Building data pipelines from SCADA, smart meters, and IoT sensors into centralized carbon databases.
Implementing blockchain or distributed ledger systems for transparent REC and GO tracking.
Ensuring data lineage and auditability for third-party verification of carbon claims.
Applying machine learning to impute missing data and detect anomalies in energy and emissions datasets.
Integrating GIS tools to map emissions intensity across transmission networks and substations.
Developing APIs for real-time carbon intensity signals to inform automated building and industrial controls.
Establishing data governance policies for access, retention, and quality control in carbon systems.

Module 8: Regulatory Compliance and Stakeholder Reporting

Mapping corporate reporting obligations across jurisdictions (CSRD, SEC, TCFD, ISSB).
Preparing auditable documentation for carbon inventories to support external assurance.
Responding to CDP and other third-party disclosure requests with consistent methodology.
Managing discrepancies between financial reporting periods and operational energy data availability.
Disclosing forward-looking decarbonization targets with clear assumptions and boundary definitions.
Handling confidential commercial information in public sustainability reports.
Aligning internal carbon data models with auditor requirements for materiality and completeness.
Tracking policy developments in carbon border adjustment mechanisms (CBAM) affecting energy imports.

Module 9: Organizational Integration and Change Management

Embedding carbon footprinting responsibilities into procurement, engineering, and finance roles.
Designing cross-functional workflows between sustainability, operations, and IT teams.
Training asset operators on data collection protocols and emission factor selection.
Integrating carbon KPIs into capital expenditure approval processes.
Establishing escalation procedures for data quality issues and reporting discrepancies.
Conducting tabletop exercises for audit readiness and regulatory inquiry response.
Managing executive communication of carbon performance with appropriate context and caveats.
Aligning incentive structures to prioritize long-term decarbonization over short-term cost savings.