Energy Leadership Training Course

Duration 5 days 10 modules · 33 contact hours
Level Intermediate Certificate on completion
Who attends Energy and Utilities Managers, Sustainability Directors and others
Fee from USD 1,100 KSh 95,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-ETR-019

Before you join: Participants should have working experience in management, finance, operations, sustainability, infrastructure, policy or energy-related roles.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Energy transition decisions now affect corporate strategy, public policy, capital allocation, energy security and operational continuity. Leaders must interpret volatile fuel and power markets while judging renewable technologies, grid constraints, carbon obligations and community expectations. Poor decisions can lock organisations into high-cost assets, weak contracts, unreliable supply or transition plans that cannot be financed or delivered.

This course builds the judgment required to lead energy transition programmes, investment decisions and strategic discussions. Participants examine energy market fundamentals, transition scenarios, renewable generation, storage, hydrogen, grids, project economics, carbon reporting and portfolio strategy. They learn to compare technology and procurement options, test investment assumptions, assess risk, prepare decision papers and connect energy targets with credible implementation plans. The course addresses both commercial and public-interest considerations, including affordability, reliability, emissions, local benefits and just transition commitments.

Teaching combines focused instructor briefings with energy-market cases, financial and scenario-analysis work, group decision simulations and structured application planning. Cases reflect choices faced by utilities, industrial energy users, financial institutions, public agencies and infrastructure investors. Participants leave with an Energy Transition Leadership Action Plan, supported by a project screening model, risk register, stakeholder map and executive decision-paper structure that can be adapted to their own organisation.

The course is suited to managers who influence energy strategy but do not need to be specialist engineers or project financiers. It is particularly valuable for leaders responsible for major energy users, infrastructure portfolios, climate commitments, investment governance, policy implementation or renewable-energy programmes.

What you will be able to do

  • Interpret energy market structures, price signals and security-of-supply risks
  • Evaluate renewable, storage and hydrogen options using technical and commercial criteria
  • Model project economics using LCOE, cash flow, discount rates and sensitivity analysis
  • Assess grid, permitting, carbon and stakeholder risks for energy investments
  • Compare renewable procurement structures, including PPAs, onsite generation and energy attribute certificates
  • Prepare transition plans aligned with GHG Protocol and IFRS S2 requirements
  • Design an energy portfolio roadmap with milestones, ownership and performance indicators
  • Present investment recommendations through an executive energy decision paper

Benefits of attending

For you

  • Greater confidence challenging renewable-project assumptions and vendor claims
  • A practical basis for moving into energy strategy or transition leadership roles
  • Improved ability to brief executives on energy risks, investment choices and trade-offs
  • Working knowledge of power purchase agreements, storage economics and grid constraints
  • A reusable action plan for progressing a live organisational energy priority

For your organisation

  • Better scrutiny of renewable investments, procurement contracts and transition proposals
  • More credible links between emissions targets, capital plans and operational constraints
  • Earlier identification of grid, permitting, counterparty and community risks
  • Stronger executive decision papers for energy-security and decarbonisation choices
  • Clearer ownership and milestones for energy transition programme delivery

Course modules

10 modules over 5 days

Participants can interpret core energy market dynamics and identify material security risks.

  • Primary energy balances, final consumption and conversion losses interpreted correctly
  • Supply-demand curves explain price formation, scarcity rents and volatility
  • Brent, Henry Hub and LNG markers compared for regional exposure
  • Electricity merit order links dispatch, marginal pricing and curtailment
  • Energy security assessed through availability, affordability, resilience and sustainability
  • Geopolitical chokepoints and critical minerals mapped to procurement risks

Participants can assess transition pathways and translate policy signals into strategic implications.

  • Paris Agreement temperature goals translated into national energy policy signals
  • IEA scenarios tested against assumptions, boundaries and decision relevance
  • Nationally Determined Contributions assessed for credibility, implementation and financing gaps
  • Carbon budgets connect cumulative emissions, sector pathways and asset lives
  • Just transition principles identify distributional impacts, labour needs and consent
  • Policy instruments compared: carbon pricing, standards, auctions and tax credits

Participants can compare clean energy technologies using relevant performance and deployment criteria.

  • Solar photovoltaic yield estimates use irradiation, performance ratio and degradation
  • Onshore and offshore wind resource assessment considers capacity factors and wake losses
  • Hydropower, geothermal and sustainable biomass assessed against site-specific constraints
  • Battery storage duration, cycling and degradation linked to dispatch value
  • Green hydrogen pathways compared using electrolyser efficiency, load factor and transport
  • Technology readiness levels distinguish demonstration projects from bankable deployment

Participants can identify how grid conditions and flexibility resources affect renewable deployment.

  • Variable renewable energy forecast errors translated into balancing requirements
  • Grid hosting capacity identifies connection limits, congestion and upgrade needs
  • Ancillary services distinguish frequency response, reserves, voltage control and black start
  • Demand response designs shift load through tariffs, controls and aggregation
  • Interconnectors, storage and flexible generation compared using system value
  • Integrated resource planning reconciles reliability, affordability and emissions objectives

Participants can assess renewable project economics and evaluate commercial risk allocation.

  • LCOE calculated with capital expenditure, operating costs, output and discount rates
  • Levelised cost limitations tested against timing, location and system integration
  • Project cash flows modelled through construction, operations, debt service and decommissioning
  • Power purchase agreements allocate volume, price, curtailment and credit risk
  • Merchant exposure assessed through capture prices, hedging and congestion losses
  • Weighted average cost of capital reflects country, technology and contract risks

Participants can structure investment decisions using evidence, risk analysis and governance controls.

  • Stage-gate investment governance defines evidence, approvals and decision rights
  • Risk registers quantify development, construction, operating, regulatory and counterparty exposures
  • Scenario analysis tests portfolio resilience under fuel, carbon and demand shocks
  • Real options frame flexibility in phased projects, repowering and retirement choices
  • Due diligence covers land rights, permits, grid access and revenue contracts
  • Investment committee papers present assumptions, sensitivities, mitigations and recommendation

Participants can connect energy decisions with emissions accounting, disclosure and transition planning.

  • Scope 1, 2 and 3 inventories follow GHG Protocol boundaries
  • Market-based and location-based electricity emissions distinguished for reporting decisions
  • Marginal abatement cost curves prioritise emissions reductions by cost and potential
  • IFRS S2 disclosures connect climate risks, governance, strategy and metrics
  • Transition plans specify targets, capital allocation, dependencies and accountability
  • Carbon claims tested against additionality, attribution, permanence and double counting

Participants can develop an integrated energy strategy for demand, supply and asset portfolios.

  • Corporate energy strategy aligns demand reduction, procurement, generation and resilience
  • Energy baselines separate operational changes from weather, production and occupancy effects
  • Renewable procurement routes compare onsite generation, PPAs, EACs and utility tariffs
  • Portfolio optimisation balances returns, emissions, liquidity and concentration constraints
  • Asset retirement decisions assess impairment, remediation, community and replacement capacity
  • Strategic roadmaps sequence no-regrets actions, pilots, scale-up and review points

Participants can lead stakeholder engagement and governance for contested energy decisions.

  • Stakeholder maps identify influence, interests, dependencies and engagement priorities
  • Free, Prior and Informed Consent principles guide community engagement decisions
  • Social licence risks tracked through grievances, benefit sharing and local employment
  • Cross-functional governance assigns accountable owners using RACI decision matrices
  • Board briefings distinguish strategic choices, fiduciary duties and management actions
  • Negotiation preparation defines BATNA, reservation value, interests and concessions

Participants can convert an energy transition strategy into an owned and measurable implementation plan.

  • Energy transition operating models define mandates, interfaces, skills and accountabilities
  • Change impact assessments identify affected roles, processes, systems and behaviours
  • Implementation plans link milestones, owners, budgets, dependencies and controls
  • KPI trees connect strategic outcomes to operational leading indicators
  • Decision logs record assumptions, triggers, escalation routes and review dates
  • Personal leadership plans set stakeholder commitments, communication cadence and first actions

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Energy Transition Leadership Action Plan
  2. Renewable Project Screening Model
  3. Energy Investment Risk Register
  4. Renewable Procurement Options Matrix
  5. Stakeholder Engagement and RACI Map
  6. Executive Energy Decision Paper Template

Who should attend

  • Energy and Utilities Managers — need to assess supply, generation and transition investment choices
  • Sustainability Directors — need credible energy pathways behind emissions commitments
  • Infrastructure and Investment Managers — need to test renewable project value and risk
  • Government Energy Officials — need to connect policy objectives with implementable programmes
  • Corporate Strategy Leaders — need to incorporate energy risk and opportunity into business plans
  • Banking and Finance Professionals — need to assess transition plans, project assumptions and climate exposure

Skills and tools covered

Energy market analysisRenewable project economicsTransition strategy designClimate risk assessmentEnergy procurement planningStakeholder governance

Tools and standards

IEA World Energy Outlook scenarios, GHG Protocol, IFRS S2, Levelised Cost of Energy

How the course runs

Training methodology

The course uses short instructor briefings to establish concepts, followed by energy-market cases, structured group analysis and decision simulations. Participants compare generation and procurement choices, examine project cash flows, test scenario assumptions and prepare responses to grid, policy and stakeholder constraints. Discussions draw on utility, industrial, public-sector and investment contexts. Facilitated application planning helps participants adapt the methods to a current organisational issue, while peer review strengthens the clarity of investment and transition recommendations.

Requirements and prerequisites

Participants should have working experience in management, finance, operations, sustainability, infrastructure, policy or energy-related roles. They should be comfortable reading basic business cases, discussing budgets and interpreting simple charts or tables. Familiarity with energy terminology, emissions reporting or renewable projects is useful but not essential. The course does not require an engineering degree, prior project-finance modelling experience, advanced mathematics or specialist knowledge of electricity-system operations. Participants should bring one current energy, climate, investment or procurement issue from their organisation for application planning.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

Participants need business experience and familiarity with budgets, operational decisions or strategic planning. Specialist engineering, electricity-market or project-finance knowledge is not required; core concepts are established before they are applied.

Bring a current energy, emissions, procurement, infrastructure or investment issue that would benefit from structured analysis. A laptop is useful for reviewing course materials and adapting templates, but no specialised software is required.

It suits managers and advisers who influence energy strategy, sustainability plans, investment decisions, operations, public policy or financing. It is designed for professionals who need to lead informed discussions with engineers, developers, finance teams and senior decision-makers.

This course focuses on leadership decisions: markets, technology choices, economics, risk, governance and implementation. It does not train participants to design solar plants, operate power systems or prepare a full corporate emissions inventory.

Participants can use the screening model, risk register, procurement matrix and decision-paper template for live initiatives. The methods support decisions such as assessing a PPA, prioritising energy investments, reviewing transition plans or preparing executive recommendations.

The programme provides about 32.5 contact hours, normally delivered from 08:30 to 16:30 each day. Teaching follows the ten modules in sequence, combining briefings, cases, analysis, simulations and application planning rather than assigning each module to a fixed day.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.