Training course
Overview
Advanced Construction
Management is a comprehensive professional training course designed to
develop advanced capabilities in managing complex construction projects,
multidisciplinary delivery environments, major contractors, sophisticated
project controls, commercial risks, technical interfaces, and strategic project
performance. The program builds on established construction management
principles and progresses toward advanced planning, cost optimization, risk
management, contract administration, quality assurance, safety leadership,
digital construction, project recovery, sustainability, and lifecycle
performance. Participants develop the ability to interpret complex project
information, anticipate emerging risks, coordinate multiple stakeholders, and
make informed management decisions throughout the construction lifecycle.
This advanced construction
management training course integrates recognized standards, frameworks,
methodologies, and industry best practices, including ISO 9001, ISO 14001, ISO
45001, ISO 31000, FIDIC contract principles, Lean Construction, Last Planner
concepts, Critical Path Method, Earned Value Management, Value Engineering,
Failure Mode and Effects Analysis, PDCA, Kaizen, and risk-based project
controls. Participants examine advanced approaches to integrated scheduling,
cost forecasting, resource optimization, procurement strategy, subcontractor
governance, claims management, delay analysis, quality improvement,
construction safety, environmental performance, and project assurance.
Practical management tools include integrated master schedules, risk registers,
change registers, cost dashboards, performance indices, interface matrices,
recovery schedules, procurement trackers, quality analytics, and executive
project dashboards.
The program emphasizes complex
real-world construction challenges such as schedule compression, cost
escalation, supply-chain disruption, contractor underperformance, design
changes, engineering interfaces, productivity losses, quality failures, safety
incidents, contractual disputes, commissioning difficulties, and stakeholder
conflict. Through advanced case studies, simulations, workshops, analytical
exercises, and project scenarios, participants learn how to diagnose root
causes, evaluate alternatives, establish recovery strategies, improve project
predictability, and align project execution with organizational objectives. The
course also explores BIM, 4D and 5D construction management, digital field
technologies, construction analytics, drones, sensors, digital twins,
automation, artificial intelligence, and data-driven project decision-making.
By completing this advanced
construction management course, participants will be equipped to manage complex
projects from strategic planning through construction execution, recovery,
commissioning, handover, and lifecycle transition. The program develops
advanced capabilities in project governance, commercial management, risk-based
decision-making, construction performance optimization, operational excellence,
sustainability, resilience, and digital transformation. The final capstone
integrates the full range of advanced construction management disciplines into
a complex project simulation, requiring participants to develop an integrated
strategy for controlling cost, schedule, quality, safety, resources, contracts,
risk, stakeholder interfaces, digital systems, and long-term asset performance.
Course
Duration
10 Days (80 Hours)
Target
Participants
·
Senior Construction Managers and Project
Managers
·
Advanced Project Controls Managers and Planning
Managers
·
Construction Directors and Engineering Managers
·
Senior Site Managers and Construction
Superintendents
·
Commercial Managers, Contracts Managers, and
Quantity Surveyors
·
Senior Procurement and Supply Chain Managers
·
Civil, Structural, Mechanical, and Electrical
Engineering Professionals
·
Project Consultants, Contractors, Developers,
and Client Representatives
·
Project Risk, Quality, HSE, and Assurance
Professionals
·
Professionals managing major, complex, or
multidisciplinary construction projects
·
Professionals responsible for project recovery,
performance improvement, or strategic construction delivery
·
Experienced construction professionals preparing
for senior management and leadership responsibilities
Course
Objectives
By the end of the training,
participants will be able to:
·
Apply advanced construction management
principles to complex and multidisciplinary construction projects
·
Develop integrated project execution strategies
aligned with organizational objectives, project requirements, and delivery
constraints
·
Analyze complex schedules using critical path,
float, schedule logic, resource constraints, and advanced progress-control
techniques
·
Integrate cost, schedule, risk, procurement,
resources, quality, safety, and commercial controls into unified
project-control systems
·
Develop advanced resource optimization,
productivity improvement, and construction recovery strategies
·
Apply advanced procurement, supply-chain,
supplier, and subcontractor performance-management practices
·
Establish robust quality assurance, quality
control, inspection, testing, defect prevention, and continuous-improvement
systems
·
Apply ISO 45001-aligned safety leadership and
advanced construction risk-management practices
·
Apply ISO 14001 principles to environmental
performance, sustainability, resource efficiency, and climate resilience
·
Apply ISO 31000 principles to strategic
construction risk identification, analysis, treatment, monitoring, and
escalation
·
Analyze construction contracts, variations,
claims, delays, disruption, acceleration, and commercial exposure
·
Apply advanced delay analysis, time-impact
assessment, schedule recovery, and project turnaround techniques
·
Use earned value concepts, forecasting, project
dashboards, trend analysis, and performance analytics for advanced project
control
·
Apply Lean Construction, Last Planner, Kaizen,
PDCA, constraint management, and value engineering to improve project
performance
·
Manage complex engineering, procurement,
construction, commissioning, and stakeholder interfaces
·
Apply BIM, 4D/5D planning, digital field
technologies, construction analytics, AI-assisted tools, sensors, and digital twins
·
Integrate lifecycle cost, maintainability,
sustainability, resilience, and operational requirements into construction
decisions
·
Establish advanced commissioning, handover,
project closeout, lessons-learned, and asset-readiness processes
·
Develop strategic construction improvement and
transformation roadmaps for complex project environments
·
Lead an integrated construction management
response to complex project risks, performance problems, and delivery
challenges
Course
Content
Day
1: Advanced Construction Strategy, Planning, Governance, and Project Controls
Module 1: Advanced Construction Strategy,
Planning, Governance, and Project Controls
1. Advanced
Construction Management and Complex Project Environments
Characteristics of major and complex construction projects, uncertainty,
multidisciplinary interfaces, organizational complexity, project governance,
strategic objectives, and advanced management responsibilities.
2. Construction
Strategy and Project Delivery Optimization
Delivery strategy, contracting strategy, packaging strategy, construction
methodology, constructability, risk allocation, schedule drivers, project
constraints, and alignment of delivery strategy with business objectives.
3. Advanced
Project Governance and Assurance
Governance structures, delegated authorities, project assurance, decision
gates, management controls, escalation pathways, independent assurance,
reporting structures, and executive oversight.
4. Strategic
Scope Management and Requirements Integration
Requirements hierarchy, scope baselines, design maturity, interface
requirements, scope boundaries, configuration management, change exposure, and
management of complex deliverables.
5. Advanced
Work Breakdown and Control Account Structures
Integrated WBS, organizational breakdown structures, cost breakdown structures,
control accounts, work packages, responsibility assignment matrices, coding
systems, and integrated project controls.
6. Integrated
Project Execution Planning
Project execution plans, construction management plans, engineering interfaces,
procurement strategies, commissioning requirements, resource plans, risk
controls, and project readiness criteria.
7. Advanced
Construction Scheduling and Integrated Master Planning
Integrated master schedules, schedule hierarchies, logic quality, critical
path, near-critical paths, milestones, constraints, calendars, baselines, and
schedule governance.
8. Project
Controls Architecture and Management Information
Integration of scope, schedule, cost, risk, procurement, quality, HSE,
resources, and commercial data; control cycles, reporting structures, data
quality, and management information.
9. Advanced
Construction Strategy Case Study
Analysis of a major project with complex interfaces, ambitious delivery
targets, multiple contractors, procurement risks, and conflicting stakeholder
requirements; development of strategic management interventions.
10. Practical
Exercise: Integrated Project Execution Strategy
Participants develop an advanced project execution strategy, governance model,
WBS, responsibility matrix, integrated controls framework, and initial
risk-based management plan.
Day
2: Advanced Scheduling, Resource Optimization, Productivity, and Project
Recovery
Module 2: Advanced Scheduling, Resource
Optimization, Productivity, and Project Recovery
1. Advanced
Critical Path and Schedule Network Analysis
Complex network logic, critical and near-critical paths, float consumption,
schedule sensitivity, logic integrity, constraints, schedule quality, and
advanced schedule diagnostics.
2. Resource-Constrained
Scheduling and Optimization
Resource loading, leveling, smoothing, workforce constraints, equipment
limitations, resource calendars, capacity analysis, and optimization of
construction sequences.
3. Advanced
Look-Ahead Planning and Production Control
Make-ready planning, constraint removal, weekly work planning, production
commitments, Percent Plan Complete, workflow reliability, and performance trend
analysis.
4. Construction
Productivity Analytics
Productivity baselines, labor productivity, equipment productivity, production
rates, crew performance, downtime, waiting, rework, benchmarking, and
productivity-loss analysis.
5. Lean
Construction and Last Planner System Concepts
Pull planning, collaborative planning, constraint management, reliable
promises, workflow control, visual management, continuous improvement, and
production-system optimization.
6. Schedule
Risk Analysis and Scenario Planning
Schedule uncertainty, risk events, scenario analysis, sensitivity analysis,
contingency, schedule buffers, probability-based thinking, and decision
support.
7. Schedule
Recovery and Acceleration Strategies
Resequencing, parallel working, additional resources, shift strategies,
selective acceleration, productivity improvement, recovery schedules, and
evaluation of time-cost-risk trade-offs.
8. Project
Turnaround and Recovery Governance
Project distress indicators, recovery diagnostics, stabilization, recovery
teams, intervention priorities, recovery governance, performance milestones,
and executive reporting.
9. Advanced
Schedule Recovery Case Study
Analysis of a delayed project involving productivity losses, design changes,
late procurement, contractor underperformance, and restricted access;
development of an evidence-based recovery strategy.
10. Practical
Exercise: Integrated Schedule Recovery Simulation
Participants analyze a distressed project schedule, identify critical
constraints, develop recovery scenarios, optimize resources, evaluate time-cost
impacts, and prepare a management recovery schedule.
Day
3: Advanced Cost Management, Procurement, Commercial Strategy, and Supply Chain
Resilience
Module 3: Advanced Cost Management,
Procurement, Commercial Strategy, and Supply Chain Resilience
1. Advanced
Construction Cost Management
Cost structures, cost baselines, control accounts, commitments, actuals,
accruals, forecasts, management reserves, cost exposure, and advanced financial
control.
2. Advanced
Estimating and Cost Forecasting
Estimate development, productivity assumptions, escalation, market conditions,
risk allowances, estimate uncertainty, cost-to-complete, estimate at
completion, and forecast confidence.
3. Earned
Value and Integrated Cost-Schedule Analysis
Planned value, earned value, actual cost, schedule variance, cost variance,
performance indices, trends, forecasting, and integration with project-control
systems.
4. Advanced
Value Engineering and Cost Optimization
Functional analysis, value drivers, lifecycle cost, constructability,
alternative design solutions, material optimization, standardization,
prefabrication, and cost-performance trade-offs.
5. Strategic
Construction Procurement
Procurement packaging, contract strategy, market analysis, long-lead planning,
supplier capacity, sourcing strategy, technical-commercial evaluation, and
procurement governance.
6. Supply
Chain Resilience and Disruption Management
Supply-chain risk, supplier concentration, logistics constraints, price
volatility, geopolitical disruption, alternative sourcing, inventory
strategies, contingency planning, and resilience.
7. Advanced
Supplier and Subcontractor Performance Management
Performance frameworks, KPIs, commercial incentives, early warnings, corrective
actions, recovery plans, interface management, and escalation.
8. Construction
Commercial Risk and Financial Exposure
Contractual exposure, claims reserves, change exposure, cost risk, payment
risk, supplier insolvency, commercial forecasting, and management reporting.
9. Advanced
Cost and Supply Chain Case Study
Evaluation of a major project experiencing inflation, procurement delays, supplier
failure, subcontractor claims, and budget pressure; development of an
integrated commercial response.
10. Practical
Exercise: Advanced Cost and Procurement Control System
Participants develop a cost-control dashboard, procurement strategy, long-lead
register, supplier risk model, forecast, commercial exposure report, and
management action plan.
Day
4: Advanced Quality, HSE, Environmental Management, and Construction Risk
Module 4: Advanced Quality, HSE,
Environmental Management, and Construction Risk
1. Advanced
Construction Quality Management Systems
Quality governance, quality assurance, quality control, risk-based quality
planning, quality objectives, assurance processes, audits, inspections, and
performance improvement.
2. ISO
9001 and Advanced Construction Quality Assurance
Process-based quality management, risk-based thinking, documented information,
operational controls, performance evaluation, corrective action, and continual
improvement.
3. Advanced
Inspection, Testing, and Quality Verification
ITPs, hold points, witness points, surveillance, inspection strategies, testing
regimes, acceptance criteria, digital inspection records, and quality
traceability.
4. Defect
Prevention, Failure Analysis, and Cost of Poor Quality
Defect trends, failure modes, FMEA, Five Whys, Fishbone, Pareto analysis,
rework, root cause analysis, preventive actions, and quality-cost optimization.
5. Advanced
Construction Safety Leadership and ISO 45001
Safety leadership, worker participation, critical-risk management, operational
controls, safety assurance, leading indicators, behavioral considerations, and
continual improvement.
6. High-Risk
Construction Activities and Critical Controls
Excavation, lifting, work at height, confined spaces, temporary works,
electrical systems, hot work, heavy equipment, traffic, stored energy, and
critical-control verification.
7. Environmental
Management and ISO 14001
Environmental aspects, impact assessment, pollution prevention, waste, water,
dust, noise, energy, environmental monitoring, compliance, and environmental
performance improvement.
8. Advanced
Construction Risk Management and ISO 31000
Strategic risk identification, risk analysis, risk appetite, treatment
strategies, ownership, escalation, contingency, opportunities, monitoring, and
integrated risk governance.
9. Advanced
HSE and Risk Case Study
Analysis of a complex project involving a serious near miss, environmental
concern, quality failure, schedule pressure, and contractor performance issues;
development of an integrated response.
10. Practical
Exercise: Integrated Quality, HSE, and Risk Assurance Plan
Participants develop advanced quality, HSE, environmental, and risk controls,
including critical-risk registers, assurance plans, inspection strategies,
KPIs, escalation criteria, and corrective actions.
Day
5: Advanced Contracts, Claims, Change, Delay, and Commercial Administration
Module 5: Advanced Contracts, Claims,
Change, Delay, and Commercial Administration
1. Advanced
Construction Contract Strategy and Risk Allocation
Contract structures, risk allocation, pricing mechanisms, employer and
contractor obligations, securities, warranties, insurance, incentives, and
commercial strategy.
2. FIDIC
and International Contract Administration Principles
Advanced concepts relating to notices, instructions, variations, payment, time,
claims, employer and contractor responsibilities, engineer/client
representative roles, and dispute mechanisms.
3. Advanced
Contract Administration and Evidence Management
Contract registers, notices, correspondence, site records, daily reports, photographs,
schedules, progress records, meeting minutes, document control, and evidentiary
integrity.
4. Advanced
Change and Variation Management
Change identification, entitlement, scope validation, technical assessment,
cost impact, time impact, approval, implementation, cumulative change effects,
and change forecasting.
5. Advanced
Construction Claims Management
Delay, disruption, acceleration, differing conditions, variations, payment
issues, access constraints, design changes, extensions of time, and evidence-based
claim development.
6. Advanced
Delay Analysis and Time Impact Assessment
Baseline schedules, contemporaneous analysis, critical-path effects, windows
analysis concepts, time-impact assessment, mitigation, concurrency, and
schedule evidence.
7. Disruption,
Productivity Loss, and Quantum Considerations
Productivity disruption, labor inefficiency, stacking of trades,
out-of-sequence work, resource disruption, measured-mile concepts, cost
evidence, and commercial analysis.
8. Dispute
Avoidance, Negotiation, and Resolution
Early dispute identification, negotiation strategies, mediation concepts,
collaborative resolution, escalation protocols, evidence presentation, and
relationship preservation.
9. Advanced
Claims Case Study
Participants analyze a complex project involving design changes, late
approvals, access restrictions, multiple delay events, productivity disruption,
contractor claims, and disputed responsibilities.
10. Practical
Exercise: Advanced Claims and Change Simulation
Participants prepare a contractual notice, variation assessment, delay
analysis, cost and time impact assessment, evidence register, negotiation
strategy, and management recommendation.
Day
6: Advanced Digital Construction, BIM, Data Analytics, and Technology Integration
Module 6: Advanced Digital Construction,
BIM, Data Analytics, and Technology Integration
1. Digital
Transformation in Construction Management
Digital maturity, technology strategy, data governance, digital workflows,
information management, technology adoption, organizational change, and
construction transformation.
2. Advanced
BIM for Construction Management
BIM coordination, information requirements, model governance, clash detection,
design-construction integration, model validation, and BIM-enabled
decision-making.
3. 4D
Construction Planning and Schedule Integration
Linking BIM models with schedules, sequence visualization, constructability
analysis, work packaging, site logistics, progress simulation, and schedule
communication.
4. 5D
Cost Integration and Model-Based Quantity Management
Quantity extraction, model-based estimating, cost coding, cost integration,
change visualization, cost forecasting, and model-based commercial management.
5. Digital
Field Management and Common Data Environments
Mobile inspections, digital forms, approvals, document control, issue tracking,
field reporting, common data environments, information security, and real-time
collaboration.
6. Drones,
GNSS, Sensors, and Reality Capture
Site mapping, progress monitoring, surveying, inspection, volumetric
measurement, connected sensors, equipment monitoring, and practical data
applications.
7. Construction
Data Analytics and Predictive Performance
Data structures, data quality, KPI analytics, trend analysis, anomaly
detection, predictive indicators, productivity analytics, and management
dashboards.
8. Artificial
Intelligence, Automation, and Digital Twins
AI-assisted forecasting, automated reporting, computer vision, robotics,
connected equipment, digital twins, predictive maintenance, and responsible
technology adoption.
9. Digital
Construction Transformation Case Study
Analysis of a complex project using BIM, digital field systems, drones,
sensors, analytics, and automated reporting to improve coordination, progress
control, quality, and productivity.
10. Practical
Exercise: Digital Construction Management Blueprint
Participants develop a digital transformation blueprint covering BIM, common
data environments, field technologies, dashboards, analytics, data governance,
automation, and digital-twin opportunities.
Day
7: Advanced Project Performance, Risk Analytics, and Operational Excellence
Module 7: Advanced Project Performance,
Risk Analytics, and Operational Excellence
1. Advanced
Integrated Project Performance Management
Integration of scope, schedule, cost, procurement, resources, quality, HSE,
commercial, and risk data into an integrated performance-management framework.
2. Advanced
KPI Architecture and Executive Dashboards
Leading and lagging indicators, KPI hierarchies, thresholds, trends, dashboard
design, management alerts, performance narratives, and executive reporting.
3. Advanced
Earned Value and Forecasting Applications
Performance measurement baselines, earned value analysis, forecasting, variance
explanations, trend analysis, management reserves, and corrective-action
decisions.
4. Construction
Risk Analytics and Scenario Modeling
Quantitative and qualitative risk analysis, scenario planning, sensitivity
analysis, risk exposure, contingency, opportunity analysis, and
decision-support models.
5. Construction
Performance Benchmarking
Productivity benchmarks, cost benchmarks, schedule performance, quality
performance, safety performance, historical comparison, industry comparison,
and appropriate interpretation of benchmark data.
6. Root
Cause Analysis and Advanced Problem-Solving
Structured problem definition, evidence gathering, Five Whys, Fishbone, Pareto,
FMEA, fault-tree thinking, causal analysis, corrective actions, and
verification.
7. Lean
Construction and Operational Excellence
Flow optimization, pull systems, visual management, standard work, Kaizen,
process stability, waste reduction, constraint management, and
continuous-improvement governance.
8. Interface
and Systems Integration Management
Engineering, procurement, construction, utilities, commissioning, stakeholders,
authorities, and operational interfaces; interface matrices, ownership,
escalation, and integration planning.
9. Operational
Excellence Case Study
Participants diagnose a project suffering from inconsistent performance, poor
workflow reliability, rework, procurement constraints, weak coordination, and
unreliable progress reporting.
10. Practical
Exercise: Advanced Project Performance Improvement Plan
Participants create an integrated performance framework containing KPIs,
dashboards, risk analytics, root cause processes, Lean interventions, interface
controls, and improvement targets.
Day
8: Advanced Project Leadership, Stakeholder Management, and Construction
Governance
Module 8: Advanced Project Leadership,
Stakeholder Management, and Construction Governance
1. Leadership
of Complex Construction Projects
Leadership challenges in high-pressure environments, decision-making,
accountability, organizational alignment, resilience, ethical leadership, and
management of competing priorities.
2. Advanced
Construction Team Structures and Organizational Performance
Multidisciplinary teams, distributed organizations, contractor-client
structures, role clarity, delegation, accountability, performance culture, and
team effectiveness.
3. Strategic
Stakeholder Management and Engagement
Stakeholder mapping, influence analysis, communication strategies, community
engagement, regulatory relationships, client expectations, conflict prevention,
and escalation.
4. Construction
Interface Management and Cross-Organizational Coordination
Interface registers, responsibility matrices, technical boundaries, information
dependencies, decision interfaces, coordination mechanisms, and interface-risk
management.
5. Advanced
Communication and Executive Reporting
Executive dashboards, issue papers, decision requests, management reports, risk
narratives, escalation communication, meeting governance, and evidence-based
recommendations.
6. Conflict
Management and Difficult Construction Relationships
Sources of conflict, commercial tension, technical disagreements, contractor
disputes, negotiation, mediation concepts, collaborative problem-solving, and
relationship management.
7. Decision-Making
Under Construction Uncertainty
Incomplete information, risk-adjusted decisions, scenario analysis, trade-offs,
escalation thresholds, decision records, and management of uncertainty.
8. Construction
Governance, Assurance, and Audit Readiness
Governance frameworks, project assurance, internal reviews, compliance, audit
trails, documentation, management controls, corrective actions, and readiness
for external scrutiny.
9. Leadership
Case Study: Managing a Complex Project Crisis
Participants respond to a simulated crisis involving schedule pressure, stakeholder
conflict, safety concerns, contractor performance, commercial exposure, and
executive intervention.
10. Practical
Exercise: Construction Leadership and Governance Simulation
Participants conduct a project leadership meeting, evaluate competing priorities,
make evidence-based decisions, establish accountability, communicate actions,
and prepare an executive decision report.
Day
9: Sustainability, Resilience, Lifecycle Performance, and Strategic
Construction Optimization
Module 9: Sustainability, Resilience,
Lifecycle Performance, and Strategic Construction Optimization
1. Strategic
Sustainable Construction Management
Sustainability principles, environmental performance, social considerations,
resource efficiency, sustainable procurement, lifecycle thinking, and
integration into project strategy.
2. Advanced
Environmental Performance and Resource Management
Energy, water, waste, materials, emissions, pollution prevention, environmental
monitoring, environmental KPIs, and performance improvement.
3. Lifecycle
Cost and Total Cost of Ownership
Capital expenditure, operating expenditure, maintenance, replacement,
reliability, energy, durability, maintainability, lifecycle cost modeling, and
investment decisions.
4. Asset
Performance and Maintainability by Design
Maintainability requirements, accessibility, spare parts, reliability,
inspection, maintenance strategies, asset information, operational readiness,
and design-construction feedback.
5. Climate
Resilience and Construction Risk
Climate-related hazards, extreme weather, flood and heat exposure, resilience
planning, adaptation measures, construction continuity, and infrastructure
resilience.
6. Advanced
Value Engineering and Constructability Optimization
Functional analysis, design alternatives, construction methods, prefabrication,
modularization, logistics, productivity, lifecycle value, and optimization of
project outcomes.
7. Advanced
Construction Innovation and Industrialization
Modular construction, prefabrication, off-site manufacturing, robotics,
automation, advanced materials, smart equipment, and industrialized
construction models.
8. Strategic
Project Portfolio and Capital Investment Alignment
Portfolio priorities, capital allocation, project selection, strategic risk,
investment governance, benefits realization, and alignment between projects and
organizational objectives.
9. Strategic
Construction Optimization Case Study
Participants evaluate alternative strategies for improving a major project's
lifecycle value, sustainability, constructability, resilience, operational performance,
and capital efficiency.
10. Practical
Exercise: Strategic Construction Optimization Roadmap
Participants develop a strategic roadmap integrating lifecycle cost,
sustainability, resilience, innovation, maintainability, digitalization,
productivity, risk, and investment priorities.
Day
10: Advanced Commissioning, Project Closeout, Strategic Integration, and
Capstone
Module 10: Advanced Commissioning, Project
Closeout, Strategic Integration, and Capstone
1. Advanced
Construction Completion and Readiness Management
Completion strategy, system boundaries, punch-list management, outstanding
works, readiness reviews, completion criteria, certification, and transition
planning.
2. Advanced
Pre-Commissioning and Commissioning Management
Commissioning planning, test packs, inspections, flushing, cleaning,
energization, functional testing, integrated systems testing, performance
verification, and commissioning records.
3. Operational
Readiness and Asset Handover
As-built information, O&M manuals, asset registers, warranties, training,
spare parts, operational procedures, maintenance strategies, and readiness for
service.
4. Advanced
Defects, Warranty, and Performance Management
Defect trends, warranty obligations, performance verification, defect prioritization,
corrective action, warranty tracking, and post-completion monitoring.
5. Final
Accounts, Commercial Closeout, and Contract Completion
Final measurement, variations, claims, payment reconciliation, retention,
securities, final accounts, contractual completion, and commercial closeout.
6. Project
Closeout, Lessons Learned, and Organizational Knowledge
Closeout requirements, project reviews, lessons-learned workshops, knowledge
management, performance evaluation, organizational learning, and continuous
improvement.
7. Strategic
Construction Management and Executive Governance
Strategic project assurance, portfolio alignment, executive governance,
investment decisions, risk oversight, performance reviews, organizational
capability, and construction strategy.
8. Advanced
Construction Transformation and Future Operating Models
Digital construction, AI, BIM, automation, analytics, sustainability,
industrialized construction, resilience, integrated project delivery, and
future-ready construction organizations.
9. Advanced
Integrated Construction Management Simulation
Participants manage a complex project scenario involving scope growth, schedule
disruption, procurement failure, cost escalation, quality defects, safety
risks, contractual claims, stakeholder conflict, digital-system challenges, and
commissioning issues.
10. Final
Capstone: Advanced Construction Management Strategy and Executive Presentation
Participants develop and present an integrated advanced construction management
strategy covering governance, scope, execution planning, schedule, resources,
procurement, cost, quality, HSE, risk, contracts, claims, digital construction,
Lean Construction, sustainability, recovery, commissioning, handover, lifecycle
performance, and strategic continuous improvement.


