Transport Economics and Infrastructure Planning Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Transport Planner, Transport Economist and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-PP-040

Before you join: Participants should have experience working with transport, infrastructure, urban planning, public investment or policy decisions.

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

Transport agencies and infrastructure owners must decide which schemes deserve scarce public funds, how networks should perform, and how projects affect users, businesses, communities and public budgets. Poorly framed demand forecasts, weak appraisal assumptions or untested delivery plans can produce underused assets, unaffordable operating commitments and public opposition. Sound transport economics links strategic objectives to evidence, options, costs, benefits, risks and implementation choices.

This course develops the practical economic and planning skills needed to prepare, assess and prioritise transport investments. Participants work through travel-demand analysis, generalised cost, elasticity, mode choice, network performance, land-use interactions, cost-benefit analysis, distributional analysis, environmental effects, financing and procurement. They apply the four-step transport model, discounted cash-flow techniques, multi-criteria analysis and project risk methods to roads, public transport, freight, active travel and intermodal programmes.

Instructor-led sessions combine short technical briefings with cases drawn from urban mobility, corridor upgrades, port access, rail services and municipal transport programmes. Participants interpret datasets, challenge assumptions, construct appraisal inputs and review investment cases as sponsors, planners, financiers and decision-makers. They leave with a completed transport investment business case, including a demand case, economic appraisal model, option assessment, risk register and implementation plan that can be adapted for their own authority or organisation.

The course suits public-sector planners, transport economists, infrastructure project staff, policy advisers, consultants, operators and development-finance professionals who contribute to transport strategy, project appraisal or capital-programme decisions.

What you will be able to do

  • Estimate travel demand using trip generation, distribution, mode-choice and assignment methods
  • Calculate user benefits, externalities and present values within a transport cost-benefit analysis
  • Develop an evidence-based transport problem statement and strategic case
  • Compare infrastructure options using multi-criteria analysis, economic appraisal and distributional evidence
  • Construct a transport project demand forecast with documented assumptions and sensitivity tests
  • Assess project affordability, funding sources, lifecycle costs and delivery risks
  • Prepare stakeholder engagement and environmental mitigation actions for transport schemes
  • Present a complete transport investment business case for formal review

Benefits of attending

For you

  • Produce defensible transport appraisals for capital funding and approval committees
  • Challenge demand forecasts, benefit claims and cost assumptions with structured evidence
  • Translate technical modelling outputs into clear policy and investment decisions
  • Build credible business cases for roads, transit, freight and active-travel schemes
  • Contribute more effectively to negotiations with consultants, operators and funders

For your organisation

  • Improves consistency of transport project appraisal across the capital programme
  • Reduces approval risk through documented assumptions, sensitivities and risk treatment
  • Strengthens prioritisation between competing mobility and infrastructure investments
  • Connects transport spending decisions to accessibility, equity and economic development outcomes
  • Creates staff capacity to review consultant models and investment cases critically

Course modules

20 modules over 10 days

Participants can frame transport interventions around market failures, policy objectives and public value.

  • Transport as derived demand within household and business location decisions
  • Market failures: congestion, externalities, information gaps and network coordination
  • Public value objectives translated into measurable transport planning outcomes
  • Accessibility, mobility and connectivity distinguished for policy and appraisal
  • Road, rail, transit and freight market structures compared
  • Government roles in regulation, funding, ownership and service contracting

Participants can interpret network characteristics and service measures used in planning decisions.

  • Network hierarchy classified by movement function, access function and users
  • Link capacity, volume-to-capacity ratios and level-of-service limitations
  • Journey time reliability measured through percentile travel-time indicators
  • Public transport supply assessed through frequency, span and transfer penalties
  • Freight corridors evaluated using vehicle restrictions, terminal access and delays
  • Network resilience assessed against incidents, closures and disrupted demand

Participants can specify, assess and use transport data for planning and appraisal.

  • Traffic counts designed by location, period, vehicle class and purpose
  • Origin-destination surveys structured for trip purpose, mode and time
  • Household travel surveys sampled, weighted and checked for bias
  • Automatic vehicle location data cleaned for transit performance analysis
  • Mobile-phone and ticketing data assessed for coverage and privacy limitations
  • Data quality checks identify missing values, outliers and inconsistent definitions

Participants can explain travel choices using generalised cost and behavioural response measures.

  • Generalised cost combines fares, fuel, time, reliability and interchange penalties
  • Value of travel time differentiated by purpose, mode and traveller
  • Own-price and cross-price elasticities estimated from observed demand changes
  • Income elasticity considered when forecasting vehicle ownership and ridership
  • Induced demand distinguished from reassignment, redistribution and generated trips
  • Stated-preference and revealed-preference evidence compared for policy forecasting

Participants can build and critique a basic transport demand forecasting structure.

  • Trip generation estimated from households, employment, land use and demographics
  • Trip distribution applies gravity models and impedance-based travel resistance
  • Mode choice models compare generalised costs across available alternatives
  • Traffic assignment loads forecast trips onto constrained network links
  • Base-year calibration compares modelled outputs against observed counts
  • Forecast-year scenarios document growth assumptions, committed schemes and policies

Participants can assess how transport investments influence accessibility, land use and development.

  • Accessibility indicators measure opportunities reachable within defined travel-time thresholds
  • Land-use transport feedback links development intensity, travel demand and capacity
  • Agglomeration effects assessed through effective density and business connectivity
  • Transit-oriented development tested against station access, density and market demand
  • Value capture mechanisms compared: betterment levies, land sales and tax increment
  • Displacement risks identified for low-income residents near major investments

Participants can prepare a strategic case that connects evidence, objectives and intervention logic.

  • Problem statements distinguish symptoms, causes, constraints and affected populations
  • Theory of change maps inputs, outputs, outcomes and long-term impacts
  • SMART objectives set measurable targets for safety, access and reliability
  • Do-minimum and do-something cases establish credible intervention baselines
  • Strategic alignment tested against transport plans, climate commitments and budgets
  • Benefits maps assign ownership, indicators and evidence sources to outcomes

Participants can generate feasible alternatives and assess them against transparent criteria.

  • Option longlists include demand management, operations, assets and pricing
  • Fatal-flaw screening tests legal, technical, environmental and land constraints
  • Multi-criteria analysis weights objectives, scores options and records rationale
  • Pareto analysis identifies options with superior cost and outcome trade-offs
  • Reference-class evidence challenges optimistic cost, time and demand assumptions
  • Preferred options justified through documented criteria, evidence and stakeholder input

Participants can estimate and structure whole-life costs for transport infrastructure options.

  • Work breakdown structures separate civil works, systems, land and supervision
  • Unit-cost estimates use quantities, market rates and location adjustments
  • Lifecycle costing includes renewal cycles, maintenance, operations and disposal
  • Optimism bias adjustments applied to early-stage capital cost estimates
  • Contingency allowances linked to identified risks and estimate maturity
  • Cost estimates reconciled with scope, schedule, procurement and inflation assumptions

Participants can calculate and interpret core economic benefits and costs of transport projects.

  • Discounted cash flows convert annual costs and benefits into present values
  • Net present value, benefit-cost ratio and internal rate calculated
  • Consumer surplus estimates user benefits from travel-time and cost changes
  • Vehicle operating costs measured from distance, speed and fleet composition
  • Accident benefits calculated using crash reductions and unit values
  • Economic analysis separates resource costs from taxes, transfers and financing

Participants can incorporate environmental effects and climate risks into transport decisions.

  • Greenhouse gas emissions estimated from vehicle kilometres, fuel and technology
  • Local air pollutants assessed using exposure, emissions and receptor locations
  • Noise impacts valued through affected populations, exposure levels and duration
  • Biodiversity and habitat effects screened using mitigation hierarchy principles
  • Climate risk assessment considers heat, flooding, landslides and sea-level rise
  • Carbon values applied consistently with national appraisal guidance and scenarios

Participants can assess who gains, who bears costs and how schemes affect access.

  • Distributional analysis identifies impacts by income, gender, age and disability
  • Accessibility gaps mapped for jobs, education, healthcare and essential services
  • Affordability assessed through fare burdens, household income and travel needs
  • Universal design requirements considered for stations, vehicles and pedestrian routes
  • Safety analysis addresses women, children and vulnerable road users
  • Mitigation measures target displacement, severance and unequal benefit distribution

Participants can prepare a financial case covering funding sources, cash flows and affordability.

  • Financial appraisal distinguishes project cash flows from economic resource costs
  • Capital funding sources include budgets, grants, debt and land-value capture
  • Operating revenues forecast from fares, tolls, advertising and service contracts
  • Affordability tests compare annual commitments against fiscal ceilings and reserves
  • Debt-service coverage and repayment profiles assessed for revenue-backed projects
  • Funding gaps addressed through phasing, scope revision and financing structures

Participants can match delivery and procurement approaches to project risks and capabilities.

  • Design-bid-build, design-build and public-private partnership models compared
  • Risk allocation assigns construction, demand, operations and interface responsibilities
  • Output specifications define service levels, availability and performance standards
  • Procurement strategy reflects market capacity, competition and contract complexity
  • Bid evaluation combines price, quality, technical compliance and lifecycle value
  • Contract management plans track milestones, variations, claims and performance deductions

Participants can test investment cases against uncertainty and develop proportionate risk responses.

  • Risk registers document causes, events, consequences, owners and treatments
  • Sensitivity analysis tests discount rates, demand, costs and opening dates
  • Scenario analysis combines plausible economic, policy and network changes
  • Monte Carlo simulation estimates probability distributions for key appraisal results
  • Risk-adjusted cost estimates distinguish contingency from management reserve
  • Decision gates specify evidence thresholds before funding and procurement approval

Participants can connect investment choices with operational performance and long-term asset needs.

  • Service planning matches routes, frequencies, fleet requirements and demand patterns
  • Timetable design considers cycle times, layovers, recovery and crew constraints
  • Asset management plans link condition, criticality, maintenance and renewal
  • Key performance indicators track punctuality, reliability, safety and customer experience
  • Demand management measures include pricing, parking controls and travel planning
  • Operating subsidies assessed against service obligations and social objectives

Participants can plan governance, engagement and approval arrangements for transport projects.

  • Stakeholder mapping identifies influence, interests, concerns and engagement approaches
  • Public consultation plans define audiences, channels, feedback and decision records
  • Interagency coordination addresses land, utilities, permits and service integration
  • Governance structures clarify sponsor, owner, operator and assurance responsibilities
  • Stage-gate approvals test strategic, economic, financial and delivery cases
  • Audit trails retain assumptions, evidence, decisions and change-control records

Participants can create monitoring arrangements that test whether expected transport benefits occur.

  • Benefits realisation plans connect outcomes, indicators, baselines and accountable owners
  • Before-and-after studies measure travel time, ridership, safety and emissions
  • Evaluation designs distinguish project effects from background economic changes
  • Target trajectories identify corrective actions when benefits underperform expectations
  • Post-opening reviews compare actual costs, demand and outcomes against forecasts
  • Lessons-learned registers improve assumptions for future transport investment cases

Participants can communicate appraisal findings clearly to technical and non-technical decision-makers.

  • Executive summaries state the decision, recommendation, evidence and key risks
  • Appraisal tables present costs, benefits, assumptions and sensitivity results clearly
  • Maps and charts explain accessibility, demand, network and equity effects
  • Uncertainty communication distinguishes ranges, scenarios, confidence and unknowns
  • Committee papers separate factual findings from policy judgements and recommendations
  • Oral briefings anticipate challenge on affordability, distribution and delivery feasibility

Participants can build, review and present a complete transport investment business case for a selected scheme.

  • Define the transport problem, affected users and measurable investment objectives
  • Develop demand assumptions, baseline conditions and forecast-year scenarios
  • Compare shortlisted options using economic, environmental and equity evidence
  • Calculate lifecycle costs, user benefits, externalities and discounted appraisal results
  • Prepare financial, procurement, risk and governance sections for approval
  • Present the completed business case and defend recommendations under review

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

What you take back to work

  1. Transport investment business case template
  2. Demand forecasting assumptions register
  3. Cost-benefit analysis spreadsheet model
  4. Multi-criteria option appraisal matrix
  5. Transport project risk register
  6. Benefits realisation and monitoring plan

Who should attend

  • Transport Planner — needs defensible evidence for network and corridor decisions
  • Transport Economist — requires structured methods for appraisal and investment prioritisation
  • Infrastructure Project Manager — must connect scope choices with benefits, costs and risks
  • Public Policy Adviser — assesses transport proposals against public value objectives
  • Urban Development Planner — coordinates land use, accessibility and transport capacity
  • Development Finance Professional — reviews economic cases for transport lending and grants

Skills and tools covered

Transport demand modellingEconomic appraisalOption assessmentProject financial analysisInfrastructure governanceInvestment case development

Tools and standards

Four-Step Transport Model, Cost-Benefit Analysis, Multi-Criteria Analysis, Monte Carlo Simulation

How the course runs

Training methodology

The course uses short instructor briefings, worked calculations, case analysis, group exercises, decision simulations and structured application planning. Participants assess realistic road, transit, freight and active-travel proposals using supplied demand, cost and policy data. Teams review competing options, test assumptions, prepare appraisal evidence and respond to challenge from a simulated investment committee. Facilitators provide feedback on technical choices, presentation logic and decision records. Participants progressively assemble components of an investment case before completing the final capstone.

Requirements and prerequisites

Participants should have experience working with transport, infrastructure, urban planning, public investment or policy decisions. They should be comfortable reading tables, charts, project budgets and basic spreadsheet calculations, including percentages and discount rates. Familiarity with local transport systems, public-sector approval processes or infrastructure projects is useful. The course does not require prior training in economics, advanced statistics, engineering design, geographic information systems or specialist modelling software. Participants may bring a current transport project, corridor proposal or investment concept 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 practical familiarity with transport, infrastructure, planning, policy or public investment work and basic comfort with numbers. Prior economics training, advanced modelling skills and engineering qualifications are not required.

Bring a laptop for spreadsheet-based analysis and, where permitted, a current transport proposal or planning problem. Participants can use course cases if they cannot share project information.

The course is suited to planners, economists, project managers, policy advisers, infrastructure staff, consultants, operators and finance professionals. It is particularly useful for staff who prepare or review transport investment cases.

This course focuses on the economic, policy, planning and decision case for transport investments. It does not teach detailed geometric design, construction engineering or generic project-management certification content.

Participants can apply the templates and methods to screen options, review demand forecasts, calculate appraisal inputs and structure business cases. The capstone provides a model for presenting evidence to sponsors, funding bodies and approval committees.

The first week establishes transport economics, demand, data, option development and appraisal foundations. The second week addresses funding, procurement, risk, operations, governance, evaluation and completion of the investment business case; each day runs from 08:30 to 16:30 with about 6.5 contact hours.

Questions about this course?

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