Urban Resilience and Infrastructure Risk Reduction Training Course

Duration 10 days 16 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Urban planners, Disaster risk managers 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-DRM-020

Before you join: Participants should have working experience in urban planning, infrastructure, utilities, emergency management, climate adaptation, public works, development programmes or related policy 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

Cities concentrate people, housing, transport, utilities, public services and economic activity in locations increasingly exposed to floods, heat, storms, drought, earthquakes, landslides and cascading infrastructure failures. A single disruption can interrupt power, water, health services, mobility, communications and livelihoods at the same time. Urban authorities, asset owners and development partners need defensible methods to identify priority risks, assess infrastructure dependencies, select proportionate risk-reduction measures and finance implementation.

This course equips participants to plan urban resilience and infrastructure risk reduction using established disaster risk management methods. Participants examine hazard, exposure, vulnerability and capacity; develop risk registers and spatial risk profiles; assess critical infrastructure systems; map interdependencies and cascading failures; and apply climate scenarios to service continuity decisions. The course addresses land-use planning, resilient design, nature-based measures, early warning systems, emergency preparedness, recovery planning, governance and investment appraisal.

Instruction combines focused briefings with urban case material, facilitated analysis, mapping tasks, tabletop simulations and structured peer review. Participants progressively develop a resilience work package for a selected city, district, infrastructure corridor or service system. They leave with a practical risk and resilience portfolio containing a problem definition, risk assessment, criticality analysis, intervention options, implementation roadmap, monitoring measures and stakeholder engagement plan.

The course is suited to professionals responsible for municipal planning, infrastructure delivery, utility operations, disaster risk management, climate adaptation, development programmes and urban investment decisions. It is delivered instructor-led over 10 days, from 08:30 to 16:30, in classrooms across 50+ cities or live online. Participants receive a certificate of completion.

What you will be able to do

  • Assess urban disaster risk using hazard, exposure, vulnerability and capacity analysis
  • Develop a city or infrastructure risk register with scored treatment priorities
  • Map critical infrastructure dependencies and identify plausible cascading failure pathways
  • Apply climate scenarios and service-level thresholds to infrastructure adaptation decisions
  • Prepare risk-reduction options using structural, non-structural and nature-based measures
  • Design early warning, preparedness and continuity arrangements for essential urban services
  • Appraise resilience investments using multi-criteria analysis, lifecycle costs and co-benefits
  • Produce and present an urban resilience and infrastructure risk-reduction action plan

Benefits of attending

For you

  • Build credible urban resilience proposals for planning, infrastructure or development roles
  • Assess infrastructure dependencies before disruptions become service crises
  • Present risk-reduction priorities using evidence, maps and transparent decision criteria
  • Contribute effectively to climate adaptation, emergency planning and capital investment discussions
  • Create a portfolio-quality resilience action plan based on a real urban context

For your organisation

  • Improved prioritisation of resilience investments across critical urban services
  • Clearer accountability for infrastructure risks, dependencies and treatment actions
  • Reduced exposure to avoidable service interruptions and cascading operational failures
  • Stronger evidence for municipal budgets, donor proposals and infrastructure business cases
  • More coordinated planning between land-use, utility, emergency and recovery functions

Course modules

16 modules over 10 days

Participants can frame urban resilience problems around people, assets, services and decision responsibilities.

  • Urban resilience concepts linked to service continuity and recovery capacity
  • Disaster risk components: hazard, exposure, vulnerability and coping capacity
  • Sendai Framework priorities applied to municipal risk-reduction responsibilities
  • Systems thinking for interconnected urban services and infrastructure assets
  • Risk accumulation through informal growth, maintenance deficits and land conversion
  • Resilience objectives expressed as measurable service and recovery outcomes

Participants can characterise priority hazards using evidence, climate information and uncertainty statements.

  • Hazard typologies covering hydrometeorological, geological, technological and biological events
  • Climate hazard trends derived from observations, projections and local records
  • Return periods, event magnitude and probability interpreted for planning decisions
  • Compound events assessed through concurrent hazards and shared vulnerabilities
  • Climate scenario narratives used to test long-term infrastructure assumptions
  • Uncertainty statements documented without delaying proportionate risk-reduction decisions

Participants can assess who and what is exposed, vulnerable and able to cope.

  • Exposure inventories covering population, buildings, infrastructure and economic activity
  • Social vulnerability indicators disaggregated by income, age, disability and tenure
  • Physical vulnerability functions linked to hazard intensity and asset condition
  • Institutional capacity assessed through mandates, staffing, budgets and coordination
  • Participatory risk assessment methods capturing community knowledge and priorities
  • Data quality checks for completeness, spatial resolution, timeliness and bias

Participants can create a transparent risk register and prioritise treatment decisions.

  • Risk statements written with source, event, consequence and affected services
  • Likelihood-consequence matrices calibrated using defined scoring criteria
  • ISO 31000 risk treatment logic applied to urban risk registers
  • Residual risk estimated after existing controls and planned measures
  • Risk appetite and tolerance thresholds set for essential municipal services
  • Priority rankings tested against equity, feasibility, urgency and cost

Participants can use spatial evidence to identify development controls and risk-reduction priorities.

  • Risk layers combining hazards, exposure, vulnerability and critical facilities
  • GIS map interpretation for floodplains, heat islands and evacuation constraints
  • Land-use zoning controls matched to hazard intensity and occupancy risk
  • Development screening criteria for settlements, industry and public facilities
  • Setbacks, easements and buffer zones specified for high-risk locations
  • Risk-sensitive upgrading options for informal settlements and underserved districts

Participants can identify critical assets and define acceptable service interruptions.

  • Criticality criteria covering life safety, service demand and economic consequences
  • Asset registers structured by function, location, condition and ownership
  • Service-level objectives defined for water, power, transport and health
  • Criticality scoring distinguishes single points of failure from redundant assets
  • Failure mode and effects analysis applied to essential service assets
  • Maintenance backlogs assessed as drivers of infrastructure vulnerability

Participants can map dependency relationships and analyse cascading service failures.

  • Dependency mapping identifies physical, digital, geographic and organisational links
  • Causal loop diagrams trace feedback between infrastructure disruption and demand
  • Cascading failure pathways analysed from initiating event to community impacts
  • Interdependency matrices compare upstream suppliers and downstream service users
  • Common-cause failures identified across co-located infrastructure and shared corridors
  • Cross-utility coordination protocols specified for disruption escalation decisions

Participants can select proportionate structural and operational measures for priority risks.

  • Structural measures include elevation, floodproofing, redundancy and protective works
  • Non-structural measures cover maintenance, operating rules and development controls
  • Safe-to-fail design accommodates overload without catastrophic service collapse
  • Fail-safe design protects people during component malfunction or power loss
  • Design standards reviewed against future climate loads and asset lifecycles
  • Option screening compares effectiveness, constructability, affordability and maintenance needs

Participants can assess nature-based measures alongside engineered infrastructure interventions.

  • Nature-based solutions reduce flood, heat, erosion and water-quality risks
  • Catchment restoration linked to downstream drainage and water-supply resilience
  • Urban greening strategies target heat exposure and public health outcomes
  • Hybrid infrastructure combines engineered drainage with retention and infiltration features
  • Ecosystem service valuation identifies co-benefits and maintenance responsibilities
  • Land tenure and community stewardship risks assessed before implementation

Participants can design warning and preparedness arrangements linked to operational actions.

  • End-to-end early warning links monitoring, forecasting, communication and response
  • Impact-based forecasting translates hazard information into expected service consequences
  • Trigger-action protocols assign decisions before thresholds are exceeded
  • Emergency operations centre functions coordinate information, resources and public messages
  • Evacuation planning addresses routes, shelters, accessibility and transport capacity
  • Public warning messages tested for clarity, timing, reach and protective action

Participants can prepare continuity and recovery arrangements for critical urban services.

  • Business impact analysis identifies maximum tolerable periods of disruption
  • Continuity strategies cover alternate sites, backup power and mutual aid
  • Recovery time objectives set targets for priority systems and functions
  • Damage and loss assessment separates direct, indirect and wider economic effects
  • Build Back Better principles incorporated into post-disaster reconstruction decisions
  • Recovery governance assigns authority, financing controls and community participation

Participants can establish governance arrangements and communicate risk for informed action.

  • Institutional mapping clarifies mandates, overlaps, gaps and decision rights
  • Stakeholder analysis identifies affected groups, influence and engagement priorities
  • Risk communication principles address uncertainty, trust and protective behaviour
  • Community engagement plans include accessible formats and feedback mechanisms
  • Public-private coordination arrangements define data sharing and mutual support
  • Accountability matrices assign owners, approvers, contributors and informed parties

Participants can compare resilience options and prepare an investment case.

  • Cost-benefit analysis compares avoided losses with intervention lifecycle costs
  • Multi-criteria analysis ranks options with monetary and non-monetary criteria
  • Lifecycle costing includes capital, operations, maintenance, replacement and residual value
  • Distributional analysis identifies who receives benefits and bears implementation costs
  • Financing sources include municipal budgets, insurance, grants and climate funds
  • Resilience business cases link interventions to service, fiscal and social outcomes

Participants can convert selected measures into a governed and measurable implementation plan.

  • Theory of change links activities, outputs, outcomes and resilience objectives
  • Implementation roadmaps sequence quick wins, capital projects and policy reforms
  • Work breakdown structures define tasks, dependencies, resources and milestones
  • Resilience indicators measure service continuity, exposure reduction and preparedness
  • Monitoring plans specify baselines, targets, data sources and reporting cycles
  • After-action reviews capture lessons following incidents, exercises and near misses

Participants can assemble evidence and decisions into a coherent draft resilience plan.

  • Problem statements define place, population, services and priority disruption scenarios
  • Risk profiles consolidate hazard, exposure, vulnerability and capacity evidence
  • Critical infrastructure findings identify dependencies, bottlenecks and recovery priorities
  • Intervention packages combine land-use, engineering, preparedness and governance measures
  • Implementation sequencing reflects urgency, affordability, dependencies and institutional readiness
  • Draft plan sections tested against decision-maker needs and available evidence

Participants can build, review and present a complete urban resilience and infrastructure risk-reduction action plan.

  • Scope a city, district, corridor or service-system resilience challenge
  • Compile a defensible risk register and critical infrastructure dependency analysis
  • Prioritise interventions using risk scores, equity criteria and investment evidence
  • Prepare implementation roadmap with owners, milestones, budgets and indicators
  • Review action plans against peer challenge and stakeholder decision requirements
  • Present recommendations, assumptions, residual risks and next-step governance actions

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

What you take back to work

  1. Urban disaster risk assessment template
  2. Critical infrastructure dependency map
  3. Municipal risk register and treatment matrix
  4. Resilience investment appraisal model
  5. Service continuity and recovery checklist
  6. Urban resilience action plan

Who should attend

  • Urban planners — prioritise risk-informed land use and development controls
  • Disaster risk managers — translate hazard evidence into municipal risk-reduction actions
  • Infrastructure asset managers — assess service vulnerabilities and continuity requirements
  • Utility and transport managers — manage dependencies affecting essential service delivery
  • Climate adaptation specialists — connect climate risk analysis with urban investment planning
  • Development programme managers — design accountable urban resilience interventions

Skills and tools covered

Urban risk assessmentInfrastructure criticality analysisClimate adaptation planningCascading failure analysisResilience investment appraisalEmergency continuity planning

Tools and standards

Sendai Framework for Disaster Risk Reduction, ISO 31000 Risk Management, Failure Mode and Effects Analysis, Multi-Criteria Analysis

How the course runs

Training methodology

The course uses short technical briefings followed by case analysis, facilitated group work, mapping tasks, tabletop disruption simulations and application planning. Participants work with realistic municipal, utility and infrastructure scenarios, including flood disruption, heat stress, drainage failure and power-service dependencies. Trainers demonstrate methods before participants apply them to a chosen urban area or service system. Peer review sessions test assumptions, priorities and implementation choices. Daily reflection connects course tools with participants’ current responsibilities and organisational decision processes.

Requirements and prerequisites

Participants should have working experience in urban planning, infrastructure, utilities, emergency management, climate adaptation, public works, development programmes or related policy roles. Familiarity with common municipal services such as water, transport, energy, drainage, health or communications is helpful. Participants should be comfortable reading maps, simple risk matrices, project documents and basic cost information. Prior training in disaster risk management, climate science, engineering design, GIS, statistics or emergency response is not required. The course does not require specialist modelling software or advanced quantitative analysis.

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

You should have experience in an urban, infrastructure, utility, emergency management, climate, planning or development role. Specialist engineering, GIS, modelling and climate science qualifications are not required.

Bring a current work challenge, such as a city risk profile, infrastructure project, service continuity concern or adaptation initiative. If permitted, relevant maps, asset information, plans or risk registers will help you tailor the course work.

It suits professionals who make, advise on or implement decisions affecting urban services and infrastructure risk. It is particularly relevant to municipal authorities, utilities, transport operators, development agencies and consulting teams.

General disaster management courses often concentrate on preparedness, response coordination and humanitarian operations. This course gives greater attention to urban systems, infrastructure dependencies, land use, asset criticality, resilience investment and long-term risk reduction.

Participants can apply the risk register, criticality criteria, dependency mapping method and intervention appraisal tools to a live city or service challenge. The final action plan can form the basis for internal planning, funding discussions or stakeholder workshops.

The first week establishes risk assessment, spatial profiling and infrastructure analysis methods. The second week develops intervention design, preparedness, financing, implementation planning and the final capstone presentation; each day runs 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.