Infrastructure Rehabilitation Project Management Training Course

Duration 10 days 16 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Project Managers, Infrastructure Engineers 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-CM-110

Before you join: Participants should have basic experience with construction, engineering, public works, utilities, facilities, transport assets or project coordination.

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

Infrastructure rehabilitation programmes must restore service while working around live traffic, utility corridors, vulnerable communities, ageing assets, constrained budgets and uncertain site conditions. Project managers must convert condition assessments into scoped, sequenced and fundable interventions, then control contractors, risks, changes and stakeholder commitments through delivery. Weak definition at the start can lead to design rework, utility clashes, claims, delayed handover and assets that remain difficult to maintain.

This course develops practical project management capability for roads, bridges, water networks, drainage systems, public buildings, energy assets and municipal facilities. Participants learn to define rehabilitation needs, prepare a work breakdown structure, develop schedules and cost baselines, select delivery and procurement approaches, manage interfaces, and establish controls for quality, safety, environmental performance and community impacts. The course applies recognised methods including PMI practice guidance, FIDIC contract principles, ISO 31000 risk management and earned value management.

Teaching combines focused instructor briefings with infrastructure cases, planning workshops, team-based decisions and project-control simulations. Participants progressively develop a rehabilitation project package using realistic asset-condition, stakeholder, cost and schedule information. They leave with a reusable project management plan, risk register, stakeholder engagement plan, baseline schedule, cost-control model and rehabilitation delivery checklist suited to their own project environment.

The course is suited to professionals managing, sponsoring, designing, supervising or supporting rehabilitation and redevelopment projects for public authorities, utilities, transport agencies, contractors, development partners and asset-owning organisations.

What you will be able to do

  • Define a rehabilitation project scope from condition data, service needs and asset priorities
  • Develop a work breakdown structure and responsibility assignment matrix for rehabilitation delivery
  • Build a logic-linked baseline schedule using critical path method sequencing
  • Prepare cost estimates, contingency allowances and earned value control thresholds
  • Apply ISO 31000 risk methods to site, interface, commercial and community risks
  • Select procurement and contract administration approaches for rehabilitation works
  • Control quality, safety, environmental and social requirements through field-based assurance systems
  • Present an integrated rehabilitation project management plan for approval and delivery

Benefits of attending

For you

  • Produce defensible rehabilitation scopes before design and procurement commitments
  • Identify utility, access and live-service constraints before they become claims
  • Run progress meetings using measurable schedule, cost and risk evidence
  • Communicate rehabilitation priorities clearly to funders, contractors and communities
  • Build a portfolio-quality project management plan for infrastructure assignments

For your organisation

  • Reduce scope gaps and late changes on ageing-asset rehabilitation projects
  • Improve budget reliability through structured estimating, contingency and change control
  • Strengthen contractor accountability with measurable baselines and reporting requirements
  • Limit service disruptions through coordinated access, utility and stakeholder planning
  • Create consistent project documentation across rehabilitation programme portfolios

Course modules

16 modules over 10 days

Participants can frame a rehabilitation project around asset condition, service requirements and investment priorities.

  • Rehabilitation, renewal and replacement distinguished through asset lifecycle decisions
  • Asset condition ratings linked to service failure and intervention urgency
  • Multi-criteria analysis ranks safety, service, cost and social priorities
  • Problem statements separate symptoms, root causes and required outcomes
  • Baseline asset data assessed for gaps, reliability and inspection needs
  • Intervention options compared using lifecycle cost and service consequences

Participants can prepare a clear rehabilitation scope with boundaries, assumptions and acceptance criteria.

  • Project charter establishes objectives, authority, constraints and success measures
  • Scope statement defines assets, locations, exclusions and handover requirements
  • Requirements traceability matrix links stakeholder needs to deliverables
  • Existing-condition surveys identify defects, dimensions, utilities and access limitations
  • Assumptions log records uncertain information requiring validation before construction
  • Acceptance criteria specify tests, tolerances, documents and operational readiness

Participants can plan stakeholder engagement and manage operational interfaces during rehabilitation works.

  • Stakeholder mapping assesses influence, interest, impacts and communication needs
  • Power-interest grid determines engagement intensity and escalation routes
  • Community grievance mechanism records complaints, response ownership and closure
  • Utility coordination matrix assigns survey, protection, relocation and approval actions
  • Traffic and access plans protect users, businesses and emergency routes
  • Interface register tracks dependencies between owners, designers and contractors

Participants can structure rehabilitation work packages and select an appropriate delivery strategy.

  • Work breakdown structure decomposes rehabilitation deliverables into controllable packages
  • Control accounts connect scope, budget, schedule and accountable managers
  • Package boundaries reflect geography, asset systems, trades and access windows
  • Make-or-buy analysis compares internal capability, contractors and specialist suppliers
  • Construction sequencing considers live operations, temporary works and shutdown periods
  • Responsibility assignment matrix clarifies accountable, responsible, consulted and informed parties

Participants can prepare an estimate and approved cost baseline for rehabilitation works.

  • Quantity take-offs convert drawings and surveys into measurable work items
  • Unit-rate estimates include labour, plant, materials, preliminaries and overheads
  • Bottom-up estimating tests scope completeness against work package quantities
  • Contingency analysis distinguishes known risks from management reserve requirements
  • Cost baseline phases approved budgets against planned work and milestones
  • Cash flow forecast aligns contractor payments with funding availability and commitments

Participants can develop a logic-linked schedule for rehabilitation activities and constraints.

  • Critical path method identifies controlling activities and completion threats
  • Precedence diagramming maps finish-to-start, start-to-start and lag relationships
  • Resource loading tests labour, equipment and material demand by period
  • Access windows constrain work around traffic, operations and seasonal conditions
  • Three-week look-ahead plans convert baseline activities into field commitments
  • Schedule narrative explains assumptions, constraints, milestones and recovery options

Participants can identify, assess and treat rehabilitation risks using a structured register.

  • ISO 31000 principles establish risk ownership, context and review discipline
  • Risk breakdown structure categorises technical, commercial, safety and social threats
  • Probability-impact matrix prioritises risks using agreed scoring definitions
  • Bow-tie analysis maps causes, preventive controls, consequences and recovery controls
  • Risk responses assign avoidance, mitigation, transfer, acceptance and contingency actions
  • Early warning indicators trigger management attention before risk escalation occurs

Participants can select procurement routes and prepare contract management requirements for rehabilitation projects.

  • Procurement strategy matches market capacity, scope maturity and risk allocation
  • Design-bid-build and design-build compared for rehabilitation uncertainty
  • Prequalification criteria assess contractor experience, resources, safety and financial capacity
  • Bid evaluation matrices score technical compliance, methodology, price and programme
  • FIDIC contract principles address notices, variations, claims and payment certification
  • Tender documents specify investigations, temporary works and service continuity obligations

Participants can establish quality controls that verify rehabilitation work against defined requirements.

  • Inspection and test plans define hold points, witnesses and acceptance evidence
  • Method statements describe sequence, plant, controls and quality responsibilities
  • Material submittals verify specifications, certificates, samples and approved alternatives
  • Nonconformance reports record defects, corrective actions and verification results
  • Root cause analysis investigates recurring workmanship and process failures
  • As-built records capture installed assets, dimensions, materials and test results

Participants can integrate safety, environmental and social controls into rehabilitation delivery plans.

  • Job hazard analysis identifies task hazards, controls and residual risk
  • Permit-to-work systems govern confined spaces, excavation and energised assets
  • Temporary traffic management separates workers, vehicles, pedestrians and public access
  • Environmental management plans control dust, noise, waste, spills and runoff
  • Social management measures address access disruption, labour conduct and grievances
  • Incident reporting distinguishes immediate response, investigation and corrective action

Participants can manage mobilisation, site logistics and daily coordination for rehabilitation works.

  • Mobilisation checklist confirms permits, insurances, staff, equipment and site facilities
  • Site logistics plan allocates storage, access, waste routes and welfare areas
  • Daily coordination meetings resolve interfaces, constraints and next-shift requirements
  • Temporary works register controls design, inspection, alteration and removal approvals
  • Field instructions document authorised clarifications without changing contract scope
  • Photographic records provide dated evidence of conditions, progress and defects

Participants can measure progress and report schedule, cost and risk performance accurately.

  • Physical progress measurement uses quantities, milestones and weighted work packages
  • Earned value management calculates planned value, earned value and actual cost
  • Schedule performance index indicates progress efficiency against approved baseline
  • Cost performance index identifies expenditure efficiency and forecast concerns
  • Forecast at completion combines current performance with remaining work estimates
  • Dashboard reporting presents progress, risks, decisions and recovery commitments

Participants can control changes and maintain records needed to assess claims fairly.

  • Change control board evaluates scope, cost, schedule and risk consequences
  • Variation requests distinguish client changes from unforeseen condition adjustments
  • Contemporaneous records preserve instructions, notices, photographs and daily reports
  • Time impact analysis assesses delay effects on critical path activities
  • Extension-of-time submissions connect delay events, notices and programme evidence
  • Negotiation preparation defines facts, entitlement positions and settlement boundaries

Participants can plan commissioning and transfer rehabilitated assets into reliable operation.

  • Commissioning plan sequences prechecks, functional tests, demonstrations and acceptance
  • Punch lists assign defect owners, deadlines, verification and closure evidence
  • Operations readiness confirms training, spares, manuals and maintenance arrangements
  • Handover dossiers compile warranties, test certificates, drawings and asset records
  • Defects liability management tracks notifications, repairs and final release conditions
  • Post-project review captures lessons for future rehabilitation programme decisions

Participants can establish governance, reporting and decision structures for rehabilitation programmes.

  • Stage-gate reviews test readiness before design, procurement, construction and handover
  • Governance matrix defines approvals, delegations, reporting lines and escalation thresholds
  • Programme dependency mapping identifies shared utilities, funding and access constraints
  • Benefits realisation plan connects completed works to service improvement measures
  • Management information systems consolidate cost, schedule, risk and quality data
  • Portfolio prioritisation revises investment sequencing using condition and performance evidence

Participants can build, review and present a complete rehabilitation project management plan for a defined infrastructure asset.

  • Asset-condition evidence converted into a justified rehabilitation project scope
  • Work breakdown, responsibility matrix and delivery strategy integrated coherently
  • Baseline schedule and cost plan tested against access constraints
  • Risk register, stakeholder plan and safeguards controls reviewed critically
  • Procurement, quality and reporting arrangements aligned with contract requirements
  • Formal presentation defends delivery decisions, controls and handover strategy

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

What you take back to work

  1. Rehabilitation project charter template
  2. Infrastructure work breakdown structure
  3. Logic-linked baseline schedule model
  4. ISO 31000 risk register
  5. Stakeholder and interface management plan
  6. Integrated rehabilitation project management plan

Who should attend

  • Project Managers — responsible for planning and controlling rehabilitation work packages
  • Infrastructure Engineers — translating asset-condition findings into deliverable project scopes
  • Construction Managers — coordinating contractors, resources, access and site interfaces
  • Public Works Officers — managing municipal renewal programmes and contractor performance
  • Utility Project Staff — delivering upgrades around operational networks and service constraints
  • Donor-Funded Project Personnel — meeting procurement, reporting and safeguards requirements

Skills and tools covered

Rehabilitation scope definitionBaseline schedule developmentInfrastructure risk managementContract administrationCost and progress controlStakeholder coordination

Tools and standards

PMI Practice Standard for Work Breakdown Structures, ISO 31000, FIDIC Conditions of Contract, Earned Value Management

How the course runs

Training methodology

The course uses short instructor briefings to introduce methods, standards and decision criteria, followed by infrastructure-based case work. Participants analyse asset-condition information, define scopes, prepare schedules, assess risks, review contractor scenarios and make control decisions using realistic project records. Group exercises examine road, water, drainage and public-facility rehabilitation cases. Simulations cover progress reporting, variation assessment and stakeholder issues. Each participant applies the tools to a selected rehabilitation context and receives structured peer and instructor review.

Requirements and prerequisites

Participants should have basic experience with construction, engineering, public works, utilities, facilities, transport assets or project coordination. They should be comfortable reading simple drawings, bills of quantities, schedules and progress reports, although advanced technical design knowledge is not assumed. Familiarity with common project terms such as scope, budget, contractor and milestone is helpful. Participants do not need prior certification in PMI methods, formal planning software training, quantity surveying qualifications or experience managing a full project.

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 have basic exposure to construction, infrastructure, engineering, utilities, facilities or project coordination. Prior formal project management certification is not required.

Participants should bring a laptop if possible and may bring a non-confidential project brief, condition report, schedule or scope document. Course materials and case data are provided.

It is intended for project managers, engineers, construction managers, public works staff, utility personnel and programme staff involved in rehabilitation or renewal projects. It is particularly relevant where assets must remain partly operational during works.

The course concentrates on ageing assets, uncertain existing conditions, service continuity, utility interfaces, access restrictions and rehabilitation contract issues. General planning and control methods are applied to these specific delivery challenges.

Participants develop reusable plans, registers and control templates that can be adapted to current projects. The capstone structure helps them test a real rehabilitation project against scope, schedule, risk and stakeholder requirements.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. Early modules build planning foundations, later modules address delivery controls, and the final module is used to prepare and present an integrated project management plan.

Questions about this course?

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