Advanced Evaluation of Climate-Resilient Infrastructure Investment Portfolios Training Course

Course Introduction

Climate change is reshaping the risks, costs, performance expectations, and investment requirements associated with infrastructure systems. Roads, bridges, ports, energy networks, water facilities, telecommunications, public buildings, and urban drainage systems face increasing exposure to extreme weather events and long-term climatic changes. Evaluating climate-resilient infrastructure investment portfolios therefore requires more than assessing individual projects against conventional financial and engineering criteria. It requires an integrated approach that examines climate hazards, asset interdependencies, lifecycle costs, service continuity, economic benefits, distributional outcomes, and the resilience of entire infrastructure networks. This course equips participants with advanced methodologies for evaluating infrastructure portfolios under current and future climate conditions.

The programme explores the principles of climate risk-informed infrastructure planning and portfolio evaluation. Participants learn to distinguish climate resilience from conventional asset reliability, disaster recovery, and general infrastructure modernization. They examine how physical exposure, asset vulnerability, service criticality, network connectivity, and institutional preparedness influence investment priorities. The course emphasizes the importance of evaluating infrastructure across its full lifecycle, including design, construction, operation, maintenance, rehabilitation, and eventual replacement. Participants also consider how long-lived infrastructure can create lock-in effects, increase future adaptation costs, or constrain development choices when current investment decisions fail to account for changing climate conditions.

A central component of the training is the economic, financial, and strategic evaluation of infrastructure investment portfolios. Participants examine cost-benefit analysis, cost-effectiveness analysis, lifecycle costing, climate risk-adjusted appraisal, multi-criteria decision analysis, and portfolio optimization. They learn to compare conventional upgrades, resilient design standards, nature-based solutions, redundancy investments, protective infrastructure, relocation, and phased adaptation strategies. The programme addresses the valuation of avoided damage, reduced service interruptions, lower recovery costs, improved asset longevity, and broader economic benefits. Particular attention is given to the treatment of discount rates, uncertainty, residual risk, contingent liabilities, maintenance obligations, and the opportunity costs associated with allocating scarce public and private investment resources.

The course develops advanced capabilities in evaluating portfolios under climate uncertainty and interconnected infrastructure risks. Participants explore how scenario analysis, stress testing, sensitivity analysis, robust decision-making, and probabilistic risk assessment can inform investment decisions across different climate futures. They examine compound hazards, cascading failures, critical infrastructure dependencies, and the possibility that simultaneous disruptions to transport, energy, water, and communications may generate losses beyond the sum of individual asset failures. The programme also addresses portfolio diversification, geographic concentration, common-mode risks, adaptation thresholds, and the value of retaining flexibility through staged or modular investments. Participants learn to identify strategies that remain effective under multiple plausible futures rather than relying exclusively on a single forecast.

Infrastructure resilience also has important implications for equity, environmental sustainability, governance, and financial accountability. Investments may protect high-value economic assets while leaving vulnerable communities exposed, transfer hazards to neighboring areas, damage ecosystems, or impose unaffordable service costs. Participants examine distributional impacts, access to essential services, social safeguards, community participation, nature-positive design, and the risk of maladaptation. The programme considers institutional coordination among infrastructure owners, regulators, planning authorities, financiers, and emergency management institutions. It also addresses how procurement quality, maintenance funding, construction standards, climate information, data governance, and performance incentives influence the effectiveness and sustainability of resilience investments over time.

By the end of the programme, participants will be able to evaluate infrastructure portfolios using integrated climate risk, economic, financial, technical, and social criteria. They will learn to prioritize investments, identify critical dependencies, assess financing and implementation risks, establish portfolio-level resilience indicators, and communicate evidence-based recommendations to investment committees and public authorities. Practical exercises focus on portfolio screening, scenario-based appraisal, lifecycle evaluation, risk-adjusted prioritization, and executive reporting. The course supports institutions seeking to improve the value of infrastructure expenditure, protect essential services, reduce long-term climate-related losses, and ensure that investments remain adaptable, inclusive, and financially sustainable as climate risks evolve.

Duration

10 days

Who Should Attend

• Government officials responsible for national infrastructure planning, public investment, and climate-resilient development.

• Infrastructure portfolio managers overseeing transport, energy, water, sanitation, telecommunications, and public building investments.

• Climate finance specialists evaluating adaptation investments, resilience funding, and climate-related infrastructure expenditure.

• Development finance institution professionals appraising infrastructure portfolios and climate risk management strategies.

• Public investment analysts and economists conducting project appraisal, economic evaluation, and lifecycle cost analysis.

• Civil and infrastructure engineers responsible for climate risk assessment, asset design, maintenance, and rehabilitation planning.

• Monitoring, evaluation, and learning specialists assessing infrastructure resilience outcomes and investment effectiveness.

• Public-private partnership specialists evaluating concession agreements, risk allocation, and long-term infrastructure performance.

• Treasury and finance ministry officials assessing climate-related fiscal risks, contingent liabilities, and infrastructure financing needs.

• Risk managers and enterprise resilience professionals responsible for physical climate risk, stress testing, and critical asset exposure.

• Urban planners and local government officials integrating resilient infrastructure into land-use planning and urban development.

• Environmental specialists assessing ecosystem impacts, nature-based solutions, and environmental safeguards in infrastructure investments.

• Procurement, contract management, and asset management professionals responsible for quality assurance and lifecycle performance.

• Auditors and assurance professionals reviewing infrastructure investment governance, project delivery, and resilience claims.

• Researchers, consultants, and data analysts conducting infrastructure portfolio evaluations and climate risk modelling.

Course Objectives

• Develop an advanced understanding of climate-resilient infrastructure investment evaluation, including the relationship between climate hazards, asset vulnerability, service criticality, lifecycle performance, and portfolio-level resilience.

• Apply climate risk screening and scenario analysis to identify infrastructure assets and investment programmes exposed to current and future physical climate hazards across different sectors and geographical locations.

• Evaluate infrastructure investments using lifecycle costing, cost-benefit analysis, cost-effectiveness analysis, and risk-adjusted financial appraisal that incorporates climate-related damage, disruption, maintenance, and recovery costs.

• Compare alternative resilience strategies, including engineered protection, nature-based solutions, redundancy, relocation, modular design, and phased adaptation, using transparent economic, technical, environmental, and social criteria.

• Assess portfolio-level dependencies, compound hazards, common-mode failures, and cascading disruptions that can amplify losses across interconnected transport, energy, water, communications, and urban service networks.

• Apply robust decision-making, stress testing, sensitivity analysis, and uncertainty assessment to determine whether investment priorities remain defensible under multiple plausible climate and socioeconomic futures.

• Prioritize infrastructure investments using multi-criteria decision analysis, resilience performance indicators, fiscal affordability, service criticality, distributional impacts, and the opportunity costs of competing projects.

• Evaluate financing structures, public-private partnership arrangements, contractual incentives, and risk allocation mechanisms that influence the resilience and financial sustainability of infrastructure investments.

• Identify maladaptation, infrastructure lock-in, environmental degradation, unequal protection, and transferred climate risks that may arise from poorly designed or narrowly appraised infrastructure interventions.

• Design monitoring and evaluation frameworks that measure service continuity, avoided losses, recovery performance, asset condition, climate risk reduction, and long-term resilience outcomes across infrastructure portfolios.

• Strengthen institutional governance, data quality, procurement oversight, maintenance planning, and accountability arrangements to ensure resilience requirements are integrated throughout the infrastructure investment lifecycle.

• Prepare evidence-based portfolio evaluation reports and investment recommendations that communicate trade-offs, uncertainty, residual risks, financing requirements, and adaptation priorities to decision-makers.

Comprehensive Course Outline

Module 1: Foundations of Climate-Resilient Infrastructure Portfolio Evaluation

• Define climate-resilient infrastructure and distinguish resilience objectives from conventional asset reliability, disaster recovery, climate adaptation, and routine infrastructure modernization.

• Examine how climate hazards, asset condition, exposure, vulnerability, service criticality, and institutional capacity influence infrastructure investment performance.

• Compare project-level appraisal with portfolio-level evaluation, including the need to assess geographic concentration, shared dependencies, competing priorities, and cumulative resilience benefits.

• Establish an evaluation framework linking strategic objectives, climate risk evidence, lifecycle performance, financial viability, environmental safeguards, and measurable resilience outcomes.

Module 2: Climate Risk Screening and Infrastructure Exposure Assessment

• Assess exposure to flooding, extreme heat, drought, storms, coastal hazards, wildfire, landslides, and other climate-related threats affecting infrastructure assets and services.

• Integrate climate projections, hazard maps, asset inventories, geospatial data, and infrastructure condition information to identify current and emerging risk concentrations.

• Examine how asset design, construction quality, location, maintenance practices, and operating conditions influence vulnerability and the likelihood of climate-related service failure.

• Develop risk screening criteria that support consistent asset classification, investment prioritization, further technical assessment, and portfolio-level risk reporting.

Module 3: Infrastructure Lifecycle Costing and Economic Appraisal

• Apply lifecycle costing to compare initial capital expenditure, operations, maintenance, rehabilitation, replacement, energy consumption, and climate-related repair requirements.

• Conduct cost-benefit analysis incorporating avoided damage, reduced downtime, service continuity, user benefits, environmental effects, and broader economic consequences.

• Evaluate cost-effectiveness where resilience outcomes cannot be reliably monetized, comparing alternative investments against clearly defined performance or risk-reduction objectives.

• Examine discount rates, asset lifespans, residual values, inflation assumptions, and uncertainty in future climate damage when comparing infrastructure investment options.

Module 4: Portfolio Prioritization and Multi-Criteria Decision Analysis

• Develop prioritization frameworks that combine climate risk reduction, asset criticality, economic efficiency, implementation readiness, equity, and strategic infrastructure objectives.

• Apply multi-criteria decision analysis to compare projects with different cost structures, resilience benefits, time horizons, geographic coverage, and evidence quality.

• Examine weighting methods, scoring scales, threshold criteria, and sensitivity tests to determine whether investment rankings are robust to changes in decision-maker preferences.

• Construct portfolio selection scenarios that balance urgent risk reduction, long-term resilience transformation, fiscal affordability, and the opportunity costs of alternative investments.

Module 5: Climate Uncertainty, Scenario Analysis, and Stress Testing

• Develop climate scenarios that reflect alternative hazard intensities, socioeconomic trajectories, urbanization patterns, technological developments, and policy conditions.

• Apply stress testing to determine how infrastructure portfolios perform under severe but plausible climate events and combinations of simultaneous hazards.

• Use sensitivity analysis and uncertainty ranges to evaluate the influence of construction costs, future maintenance requirements, hazard probabilities, and service interruption assumptions.

• Apply robust decision-making approaches to identify investment strategies that perform acceptably across multiple futures without overreliance on a single climate projection.

Module 6: Network Dependencies, Compound Hazards, and Cascading Failures

• Map interdependencies among transport, electricity, water, sanitation, telecommunications, health facilities, and other critical infrastructure systems.

• Analyze how an initial climate-related disruption can propagate across interconnected networks, affecting economic activity, emergency response, and essential service delivery.

• Evaluate compound and correlated hazards that can simultaneously affect multiple assets, regions, or infrastructure sectors and amplify portfolio-wide losses.

• Identify critical nodes, redundancy requirements, alternative service arrangements, and investment combinations that reduce systemic vulnerability and recovery time.

Module 7: Resilient Infrastructure Design and Adaptation Options

• Compare design standards, elevation, flood barriers, heat-resistant materials, drainage upgrades, structural reinforcement, and other engineered resilience interventions.

• Evaluate nature-based and hybrid solutions, including wetlands, urban green infrastructure, watershed restoration, coastal ecosystems, and natural flood management.

• Assess modular construction, flexible capacity, redundant systems, relocation, managed retreat, and phased upgrades as alternatives for managing uncertain future climate conditions.

• Determine whether proposed interventions reduce total system risk or merely transfer hazards, environmental impacts, maintenance obligations, or residual losses to other locations and populations.

Module 8: Infrastructure Financing, Fiscal Risks, and Public-Private Partnerships

• Evaluate public budgets, concessional finance, commercial lending, guarantees, insurance, blended finance, and private investment structures for climate-resilient infrastructure.

• Assess climate-related contingent liabilities, fiscal exposure, affordability constraints, debt sustainability, and the implications of repeated damage to publicly owned assets.

• Examine public-private partnership agreements, concession terms, performance incentives, force majeure provisions, and contractual allocation of climate-related risks.

• Develop financing strategies that align resilience objectives with long-term maintenance requirements, revenue models, investment sequencing, and institutional capacity to manage assets.

Module 9: Procurement, Construction Quality, and Resilience Standards

• Integrate climate risk requirements into feasibility studies, technical specifications, tender evaluation, contractor selection, and infrastructure procurement documentation.

• Assess how design deficiencies, poor construction quality, weak supervision, material substitution, and inadequate maintenance can undermine climate resilience.

• Examine the role of resilient engineering standards, climate-informed design guidance, building codes, technical certification, and independent review in reducing asset vulnerability.

• Establish assurance procedures that verify whether delivered infrastructure meets resilience requirements and whether project documentation supports credible performance claims.

Module 10: Distributional Equity and Social Value of Infrastructure Resilience

• Assess how infrastructure resilience investments affect different communities, income groups, genders, livelihoods, and populations with unequal access to essential services.

• Examine whether investment prioritization disproportionately protects high-value commercial assets while leaving vulnerable settlements or underserved regions exposed.

• Evaluate displacement, land acquisition, service affordability, environmental impacts, and the distribution of benefits and burdens associated with major resilience interventions.

• Incorporate community participation, accessibility, social safeguards, and distributional indicators into portfolio appraisal and post-investment performance assessment.

Module 11: Environmental Sustainability and Maladaptation Risk

• Evaluate environmental consequences of infrastructure interventions, including ecosystem fragmentation, altered water flows, habitat degradation, emissions, and impacts on natural hazard regulation.

• Identify maladaptation risks associated with protective structures, water-intensive infrastructure, rigid design assumptions, and investments that increase long-term exposure.

• Compare engineered infrastructure with ecosystem-based and hybrid alternatives using lifecycle, environmental, resilience, and social performance criteria.

• Develop screening procedures for detecting transferred risk, lock-in, unintended environmental consequences, and conflicts between resilience objectives and wider sustainability commitments.

Module 12: Infrastructure Performance Monitoring and Evaluation

• Develop indicators measuring asset condition, climate hazard exposure, service continuity, downtime, repair duration, recovery performance, and changes in residual risk.

• Establish baselines and targets that distinguish completed infrastructure outputs from demonstrable improvements in resilience and reduced climate-related disruption.

• Apply evaluation methods to examine whether investments contribute to avoided losses, more reliable service delivery, improved emergency response, and reduced vulnerability.

• Design monitoring arrangements that incorporate asset inspections, operating records, remote sensing, climate observations, user feedback, and periodic technical review.

Module 13: Digital Infrastructure, Geospatial Analytics, and Emerging Technologies

• Apply geographic information systems, remote sensing, asset management platforms, and climate risk databases to analyze exposure, condition, and investment performance.

• Examine the use of digital twins, sensor networks, predictive maintenance, and scenario simulation for assessing infrastructure vulnerability and operational resilience.

• Evaluate artificial intelligence and machine learning applications for anomaly detection, risk classification, asset deterioration analysis, and investment decision support.

• Establish data governance safeguards covering data quality, interoperability, privacy, cybersecurity, model validation, auditability, and human oversight of automated assessments.

Module 14: Governance, Institutional Coordination, and Portfolio Accountability

• Map institutional responsibilities among planning authorities, infrastructure owners, regulators, local governments, financiers, emergency services, and environmental agencies.

• Establish decision rights and reporting arrangements for climate risk screening, appraisal approval, investment selection, performance monitoring, and portfolio review.

• Examine governance weaknesses involving fragmented mandates, inconsistent climate data, weak maintenance accountability, short-term budgeting, and inadequate coordination across infrastructure systems.

• Develop oversight mechanisms that connect resilience objectives with investment committees, procurement reviews, asset management plans, public reporting, and independent assurance.

Module 15: Emerging Issues in Climate-Resilient Infrastructure Investment

• Examine the implications of compound climate extremes, critical infrastructure concentration, cascading failures, supply-chain disruption, and evolving design standards for portfolio resilience.

• Evaluate adaptation investment needs associated with electric mobility, renewable energy systems, data centers, digital communications, water-intensive industries, and rapidly urbanizing regions.

• Assess how insurance affordability, changing financing conditions, climate disclosure requirements, and transition risks influence infrastructure investment decisions.

• Explore flexible investment pathways, resilience dividends, nature-positive infrastructure, and advanced climate analytics while recognizing the limits of models and the need for ongoing reassessment.

Module 16: Integrated Infrastructure Portfolio Evaluation Practicum

• Develop a portfolio risk profile covering selected infrastructure assets, climate hazards, service dependencies, exposure patterns, lifecycle costs, and priority resilience gaps.

• Compare alternative investment packages using climate scenarios, economic appraisal, multi-criteria ranking, fiscal analysis, equity assessment, and residual-risk evaluation.

• Design a portfolio monitoring framework with measurable resilience indicators, reporting responsibilities, review intervals, data requirements, and decision triggers for future investment adjustments.

• Present an executive investment recommendation that explains portfolio priorities, financing needs, uncertainty, implementation risks, distributional effects, and the rationale for the preferred strategy.

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.