Electric Mobility Policy and Regulation Training Course

Duration 5 days 10 modules · 33 contact hours
Level Intermediate Certificate on completion
Who attends Transport policy managers, Energy regulators 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-016

Before you join: Participants should have practical familiarity with at least one related area: transport planning, electricity systems, climate policy, infrastructure delivery, fleet management or public regulation.

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

Electric mobility programmes often fail at the interfaces between transport, electricity, planning, consumer protection and digital services. Public authorities must set credible targets, charging rules and incentives while protecting grid reliability and public funds. Utilities and private operators need clear market roles, interoperable systems and predictable approval processes before committing capital to charging networks and fleet conversion.

This course examines the policy and regulatory architecture required to scale electric mobility. Participants assess market barriers, define policy objectives, select regulatory instruments and design charging-market rules. The programme addresses charging infrastructure planning, distribution-network impacts, tariff design, interoperability, data governance, consumer rights, fleet electrification, fiscal measures and public procurement. Participants apply standards including ISO 15118, OCPP 2.0.1 and IEC 61851 to policy choices rather than treating technical standards as isolated engineering matters.

Teaching combines focused instructor briefings, regulator and utility cases, group policy design work, tariff and infrastructure-planning simulations, and structured peer review. Cases reflect municipal charging programmes, national incentive reforms, utility connection disputes, public fleet procurement and private charge-point operator market entry. Each participant leaves with an electric mobility policy and regulatory action pack containing a policy logic model, regulatory options assessment, charging-market design checklist and implementation roadmap suitable for adaptation to their mandate.

The course is suited to professionals who already work with transport, electricity, infrastructure, climate policy, urban planning or investment decisions and now need to make informed electric mobility policy choices.

What you will be able to do

  • Assess electric mobility market failures using externality, coordination and public-goods tests
  • Develop policy logic models linking targets, instruments, outputs and measurable outcomes
  • Design charging-market rules covering access, pricing, interoperability and consumer protection
  • Evaluate charging infrastructure plans using demand forecasting and location-screening criteria
  • Apply ISO 15118, OCPP 2.0.1 and IEC 61851 to regulatory decisions
  • Analyse distribution-network impacts and compare managed-charging policy options
  • Draft incentive and procurement measures using fiscal-cost and additionality analysis
  • Prepare a phased electric mobility regulatory implementation roadmap

Benefits of attending

For you

  • Frame electric mobility proposals around measurable policy failures and public objectives
  • Discuss charging standards confidently with utilities, operators and technical advisors
  • Compare incentive schemes without relying solely on vehicle-sales targets
  • Identify regulatory risks before drafting charging infrastructure programmes
  • Produce an implementation roadmap for a current electric mobility mandate

For your organisation

  • Better alignment between transport decarbonisation targets and electricity-system constraints
  • More defensible charging infrastructure investment and procurement decisions
  • Reduced risk of fragmented charging networks and incompatible payment systems
  • Clearer market roles for utilities, municipalities, charge-point operators and fleet owners
  • Improved monitoring of fiscal incentives, consumer outcomes and charging utilisation

Course modules

10 modules over 5 days

Participants can diagnose electric mobility market barriers and define policy objectives appropriate to their jurisdiction.

  • Electric-mobility value chain: vehicles, charging, grids, data and payment actors
  • Policy objectives balanced through accessibility, affordability, emissions, reliability and industrial development
  • Market-failure diagnosis using externality, coordination, information and public-goods tests
  • Stakeholder maps distinguish regulators, utilities, municipalities, operators, manufacturers and fleet owners
  • System boundaries separate transport emissions from electricity-generation emissions and upstream production
  • International policy models compared without transplanting unsuitable institutional assumptions

Participants can construct a policy logic model and select instruments matched to defined barriers.

  • Theory-of-change models link interventions, outputs, outcomes and long-term transport objectives
  • SMART targets distinguish vehicle uptake, charger availability, utilisation and emissions reduction
  • Instrument selection compares mandates, incentives, information, standards and public investment
  • Policy sequencing identifies prerequisites before imposing vehicle or charging obligations
  • Additionality tests separate induced investments from purchases that would occur anyway
  • Distributional analysis examines impacts on renters, rural users, small firms and low-income households

Participants can assess charging infrastructure needs using demand, location and delivery criteria.

  • Charging-use cases distinguish home, workplace, destination, depot and corridor charging
  • Demand forecasts combine vehicle ownership, travel patterns, dwell time and charging behaviour
  • Location screening applies accessibility, grid capacity, land tenure and safety criteria
  • Service-area analysis identifies coverage gaps using travel-time and charger-density measures
  • Public charging targets avoid misleading comparisons based solely on charger counts
  • Phased deployment plans match charger power, utilisation expectations and capital availability
  • Site-readiness checklists cover permits, connection capacity, civil works and communications

Participants can define market roles, licensing requirements and access rules for charging services.

  • Market-role mapping separates electricity supply, charging operation, roaming and payment services
  • Licensing thresholds distinguish small private installations from public charging networks
  • Third-party access rules address exclusivity, site control and discriminatory service conditions
  • Concession models allocate demand risk, construction duties and performance obligations
  • Minimum-service requirements specify uptime, accessibility, maintenance response and customer support
  • Competition assessments identify foreclosure risks involving utilities, platforms and property owners
  • Regulatory sandboxes test novel business models under defined consumer safeguards

Participants can translate charging interoperability and consumer-protection requirements into enforceable rules.

  • ISO 15118 enables vehicle-to-charger communication, authentication and managed-charging functions
  • OCPP 2.0.1 governs charger-to-management-system messages, security and device management
  • IEC 61851 defines conductive charging modes, control functions and safety requirements
  • Ad hoc payment requirements prevent exclusion of users without network subscriptions
  • Price-transparency rules address units, session fees, idle fees and taxation
  • Roaming arrangements enable access between charging networks through interoperable settlement systems
  • Data-governance controls define consent, retention, cybersecurity responsibilities and audit trails

Participants can evaluate grid impacts and select policy measures for efficient charging demand management.

  • Distribution-network assessments identify coincident peak demand, transformer loading and reinforcement needs
  • Hosting-capacity maps inform charger siting and transparent connection-queue management
  • Time-of-use tariffs shift charging demand away from constrained network periods
  • Demand charges affect commercial charging economics, utilisation thresholds and pricing strategies
  • Managed charging coordinates vehicle charging with grid capacity, price signals and user preferences
  • Vehicle-to-grid services require settlement rules, aggregation models and battery-warranty consideration
  • Connection-cost allocation compares shallow, deep and hybrid charging infrastructure approaches

Participants can appraise fiscal instruments and establish controls for cost-effective programme delivery.

  • Purchase incentives compare grants, tax credits, registration relief and feebate mechanisms
  • Total-cost-of-ownership models test incentive levels against vehicle, fuel and maintenance costs
  • Means testing targets public support where affordability barriers are greatest
  • Scrappage schemes assess additional emissions benefits, fraud risks and administrative burden
  • Charging grants distinguish eligible equipment, installation costs and grid-upgrade expenditures
  • Fiscal-cost models estimate uptake scenarios, programme ceilings and multi-year budget exposure
  • Sunset clauses and tapering schedules prevent permanent dependence on public subsidies

Participants can design procurement and policy measures for public fleets and heavy-duty vehicle transition.

  • Fleet segmentation separates duty cycles, depot operations, payload requirements and replacement timing
  • Lifecycle-cost procurement evaluates purchase price, energy, maintenance, residual value and infrastructure
  • Performance specifications define range, availability, charging time and operational reliability
  • Depot-charging plans coordinate fleet schedules, electrical capacity and backup arrangements
  • Framework agreements manage supplier qualification, call-off procedures and equipment interoperability
  • Heavy-duty corridor planning addresses megawatt charging, rest areas and freight logistics
  • Contract-management indicators track vehicle availability, energy use, charger uptime and emissions

Participants can establish governance arrangements that reduce approval delays and accountability gaps.

  • RACI matrices assign decision rights across transport, energy, planning and finance bodies
  • One-stop permitting coordinates planning consent, electrical connection, roadworks and inspection approvals
  • Statutory timelines reduce uncertainty for permits, connections and public-land access
  • Municipal bylaws address parking enforcement, charger protection and accessible bay design
  • Interagency steering committees resolve policy conflicts through documented escalation protocols
  • Public consultation plans address resident concerns, business impacts and disability access
  • Regulatory impact assessments test proportionality, enforceability, costs and unintended consequences

Participants can create an implementation roadmap with governance, metrics, review points and corrective actions.

  • Results frameworks connect policy instruments to outputs, outcomes and system-level indicators
  • Key performance indicators track charger uptime, utilisation, access, affordability and emissions
  • Baseline design establishes credible comparison points before programme implementation
  • Data-reporting requirements specify operator submissions, validation rules and publication frequency
  • Evaluation designs use before-and-after, comparison-group and contribution-analysis approaches
  • Implementation roadmaps sequence legal changes, procurement, stakeholder engagement and market communication
  • Review triggers identify conditions requiring tariff, incentive or licensing-rule adjustment

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

What you take back to work

  1. Electric mobility policy logic model template
  2. Charging-market regulatory options assessment
  3. Charging infrastructure site-readiness checklist
  4. Grid integration and tariff decision matrix
  5. Fiscal incentive appraisal model
  6. Phased regulatory implementation roadmap

Who should attend

  • Transport policy managers — responsible for electric vehicle targets and implementation measures
  • Energy regulators — setting connection, tariff and charging-market rules
  • Utility planning managers — assessing charging demand and distribution-network investment
  • Municipal mobility officials — planning public charging and fleet transition programmes
  • Climate and sustainability managers — translating decarbonisation commitments into transport actions
  • Infrastructure investors and advisors — evaluating policy risk in charging and fleet projects

Skills and tools covered

Electric mobility policyCharging market regulationGrid integration planningInteroperability standardsFiscal incentive designRegulatory implementation

Tools and standards

ISO 15118, OCPP 2.0.1, IEC 61851, RACI matrix

How the course runs

Training methodology

The course uses short instructor briefings to establish policy concepts, regulatory choices and relevant technical standards. Participants work through cases involving city charging plans, utility connection queues, fleet procurement and national incentive reform. Group exercises test policy logic models, infrastructure siting criteria, tariff choices and stakeholder roles. Simulations examine trade-offs between public funding, private participation, grid constraints and consumer access. Each participant develops an application plan linked to a live or anticipated electric mobility policy issue.

Requirements and prerequisites

Participants should have practical familiarity with at least one related area: transport planning, electricity systems, climate policy, infrastructure delivery, fleet management or public regulation. They should be comfortable reading policy documents, interpreting basic quantitative assumptions and discussing institutional roles. Prior experience with electric vehicle technologies, utility tariff design or technical charging standards is useful but not required. The course does not require engineering qualifications, software programming, advanced economic modelling or prior work for a regulator. Technical concepts are introduced to the level needed for policy and regulatory decisions.

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 should understand basic transport, energy, infrastructure or public-policy concepts. Specialist engineering knowledge, charging-system design experience and advanced economics are not required.

Bring a current policy issue, charging programme, fleet transition plan or regulatory question if available. Participants may also bring non-confidential targets, draft regulations or infrastructure data for use during application planning.

It is designed for policy officials, regulators, utility managers, municipal planners, sustainability professionals, investors and advisors. It is most useful for people influencing electric mobility rules, programmes or infrastructure decisions.

This course focuses on policy design, regulatory institutions, market rules, incentives and implementation governance. Technical charging concepts are addressed only where they affect regulatory decisions, procurement or grid planning.

Participants can use the policy logic model, charging-market checklist and implementation roadmap to review an existing programme or prepare a new proposal. The methods support discussions with utilities, charge-point operators, finance teams and public authorities.

The course provides approximately 32.5 contact hours, normally from 08:30 to 16:30 each day. Time is divided among instructor briefings, sector cases, group analysis, simulations, discussion and individual application planning.

Questions about this course?

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