Training course

Overview

Engineering Project Management for Professionals is a comprehensive professional training course designed for engineers, project professionals, technical specialists, project coordinators, planners, consultants, and other practitioners responsible for delivering engineering projects successfully. The course provides a structured understanding of how to initiate, plan, execute, monitor, control, and close engineering projects across construction, infrastructure, manufacturing, energy, utilities, industrial, technology, and other technical environments. Participants develop practical capabilities for translating engineering requirements into clear project objectives, deliverables, schedules, budgets, resource plans, quality requirements, risk controls, and coordinated implementation strategies.

The course combines established project management principles with engineering-specific practices, using PMBOK-based approaches, Engineering Work Breakdown Structures (EWBS), Work Breakdown Structures (WBS), Critical Path Method (CPM), Program Evaluation and Review Technique (PERT), resource planning, Earned Value Management (EVM), risk registers, RACI matrices, change-control systems, procurement processes, quality management, and project reporting. Participants work with practical tools including Excel-based project trackers, scheduling templates, cost-control worksheets, risk matrices, stakeholder registers, progress dashboards, responsibility matrices, issue logs, change registers, and project status reports to strengthen their ability to manage engineering project information and delivery activities.

Engineering projects require effective coordination between technical teams, contractors, suppliers, clients, regulators, consultants, finance teams, operations personnel, and other stakeholders. The course therefore addresses practical challenges such as scope definition, design coordination, engineering interfaces, resource constraints, procurement dependencies, schedule delays, cost variations, technical changes, quality issues, contractor performance, health and safety requirements, environmental considerations, and stakeholder expectations. Participants learn how to analyse project performance, identify emerging problems, manage risks and changes, support informed decisions, and maintain alignment between engineering outputs and project objectives.

Through practical exercises, engineering case studies, project planning workshops, scheduling activities, risk-management scenarios, cost-control exercises, quality and procurement simulations, and an integrated project assignment, participants progressively develop workplace-ready engineering project management capabilities. The course moves from foundational project management concepts and engineering project initiation through planning, scheduling, cost and resource management, execution, risk, quality, procurement, project controls, change management, performance monitoring, commissioning, handover, and closeout. Emphasis is placed on practical application, professional judgement, multidisciplinary collaboration, effective communication, and disciplined project delivery.

Course Duration

5 Days (40 Hours)

Target Participants

This course is suitable for:
• Engineers and engineering professionals involved in project delivery
• Project engineers and project coordinators
• Engineering project managers and project management professionals
• Civil, mechanical, electrical, structural, chemical, industrial, environmental, and other engineering specialists
• Engineering supervisors, technical team leaders, and engineering managers
• Construction professionals and site management personnel
• Design engineers, design coordinators, and technical consultants
• Project planners, planning engineers, schedulers, and project controls professionals
• Quantity surveyors, cost engineers, cost controllers, and commercial professionals
• Procurement, contract, and supplier management professionals working on engineering projects
• Quality assurance, quality control, inspection, and testing professionals
• Health, safety, environmental, and sustainability professionals involved in engineering projects
• Maintenance, reliability, asset management, and facilities professionals
• Commissioning, testing, start-up, handover, and closeout personnel
• Contractors, subcontractors, consultants, and engineering service providers
• Professionals working in infrastructure, construction, energy, utilities, manufacturing, industrial, transport, and technology projects
• Programme and portfolio professionals coordinating engineering projects
• Government, public-sector, infrastructure, and development professionals
• Technical officers and project support professionals
• Professionals transitioning into engineering project management responsibilities

Course Objectives

By the end of the training, participants will be able to:
• Explain the principles, lifecycle, processes, and professional practices of engineering project management
• Define engineering project objectives, deliverables, scope, requirements, assumptions, constraints, and success criteria
• Develop project charters, initiation documents, stakeholder registers, responsibility structures, and project governance arrangements
• Translate engineering requirements into structured work packages, deliverables, activities, milestones, and project baselines
• Develop Engineering Work Breakdown Structures and Work Breakdown Structures for effective project planning and control
• Apply CPM, PERT, activity sequencing, dependency analysis, float analysis, and critical path techniques
• Develop realistic engineering project schedules and integrate resources, milestones, procurement, design, construction, testing, and commissioning activities
• Prepare engineering cost estimates, budgets, cash-flow plans, cost baselines, and cost-control mechanisms
• Apply Earned Value Management and other project-control techniques to monitor schedule and cost performance
• Identify, assess, prioritise, document, and manage engineering project risks and opportunities
• Develop practical risk registers, response plans, contingency strategies, and risk-monitoring processes
• Coordinate engineering design, technical interfaces, constructability, requirements, approvals, and multidisciplinary activities
• Apply quality assurance and quality control principles to engineering project execution
• Manage inspection, testing, nonconformances, corrective actions, quality records, and acceptance requirements
• Understand procurement processes, supplier management, contractor coordination, contract administration, variations, and claims
• Apply effective stakeholder management and communication practices in multidisciplinary engineering environments
• Establish practical change-control processes for scope, design, schedule, cost, requirements, and contractual changes
• Monitor project progress using KPIs, dashboards, progress reports, productivity indicators, and performance analysis
• Identify schedule delays, cost pressures, resource constraints, quality problems, and emerging project issues and develop appropriate corrective actions
• Integrate health, safety, environmental, sustainability, regulatory, and compliance considerations into engineering project management
• Manage engineering documentation, technical records, approvals, project information, and configuration requirements
• Plan commissioning, testing, operational readiness, handover, defects management, and project closeout activities
• Use practical engineering project management tools including Excel trackers, schedules, risk registers, RACI matrices, change logs, cost reports, and dashboards
• Apply PMBOK-based practices, stage-gate approaches, risk-based management, quality management, and project-control principles appropriately
• Communicate project status, risks, technical issues, decisions, and recommendations effectively to technical and non-technical stakeholders
• Integrate engineering project management knowledge through practical case studies, workplace scenarios, exercises, and an applied project assignment

Course Content

Day 1: Foundations of Engineering Project Management and Project Initiation

Module 1: Foundations of Engineering Project Management and Project Initiation

1.      Engineering Project Management Fundamentals and Professional Practice

2.      Engineering Project Lifecycle, Project Phases, and Delivery Approaches

3.      Project Objectives, Business Requirements, Engineering Requirements, and Success Criteria

4.      Project Initiation, Business Cases, Project Charters, and Feasibility Considerations

5.      Engineering Scope Definition, Deliverables, Assumptions, Constraints, and Acceptance Criteria

6.      Stakeholder Identification, Analysis, Engagement, and Communication Planning

7.      Project Governance, Roles, Responsibilities, RACI Matrices, and Decision-Making Structures

8.      Engineering Work Breakdown Structures, Work Packages, and Scope Baselines

9.      Engineering Project Management Plans and Integrated Delivery Strategies

10.  Case Study Exercise: Initiating and Structuring a Multidisciplinary Engineering Project

Day 2: Engineering Project Planning, Scheduling, Resources, and Cost Management

Module 2: Engineering Project Planning, Scheduling, Resources, and Cost Management

1.      Engineering Project Planning Principles and Integrated Planning Processes

2.      Activity Definition, Sequencing, Dependencies, Milestones, and Schedule Logic

3.      Critical Path Method, Float Analysis, and Schedule Network Development

4.      PERT, Three-Point Estimation, and Engineering Schedule Uncertainty

5.      Resource Identification, Resource Allocation, Resource Levelling, and Capacity Planning

6.      Engineering Cost Estimation, Budget Preparation, and Cost Baselines

7.      Cash-Flow Planning, Commitment Tracking, Cost Forecasting, and Financial Controls

8.      Earned Value Management and Integrated Schedule-Cost Performance Measurement

9.      Engineering Project Scheduling and Cost-Control Tools Using Excel and Scheduling Software

10.  Practical Exercise: Developing an Integrated Engineering Project Schedule, Resource Plan, and Budget

Day 3: Engineering Project Execution, Risk, Quality, Procurement, and Contracts

Module 3: Engineering Project Execution, Risk, Quality, Procurement, and Contracts

1.      Engineering Project Execution and Multidisciplinary Coordination

2.      Engineering Design Coordination, Technical Interfaces, and Constructability

3.      Engineering Project Risk Identification, Assessment, and Risk Register Development

4.      Risk Response Planning, Risk Owners, Contingency, and Ongoing Risk Monitoring

5.      Quality Assurance, Quality Control, Inspection, Testing, and Acceptance Management

6.      Nonconformance Management, Corrective Actions, Root-Cause Analysis, and Quality Improvement

7.      Procurement Planning, Supplier Selection, Vendor Management, and Long-Lead Items

8.      Contract Administration, Contractor Coordination, Variations, Claims, and Commercial Issues

9.      Engineering Documentation, Technical Records, Configuration Control, and Information Management

10.  Case Study and Simulation: Managing Risk, Quality, Procurement, and Contractor Performance

Day 4: Engineering Project Controls, Change Management, and Performance Monitoring

Module 4: Engineering Project Controls, Change Management, and Performance Monitoring

1.      Engineering Project Controls Frameworks, Baselines, and Control Processes

2.      Progress Measurement, Milestone Tracking, Work Package Monitoring, and KPIs

3.      Schedule Monitoring, Critical Path Review, Delay Analysis, and Schedule Forecasting

4.      Cost Monitoring, Budget Variance Analysis, Productivity Measurement, and Cost Forecasting

5.      Engineering Change Management and Integrated Change-Control Processes

6.      Scope, Design, Schedule, Cost, and Requirement Change Impact Assessment

7.      Project Issue Management, Corrective Actions, Escalation, and Decision Tracking

8.      Project Reporting, Dashboards, Management Reviews, and Performance Communication

9.      Project Recovery, Schedule Optimisation, Resource Reallocation, and Corrective Action Planning

10.  Practical Simulation: Diagnosing Engineering Project Performance Problems and Developing a Recovery Plan

Day 5: Engineering Project Integration, Commissioning, Handover, and Professional Application

Module 5: Engineering Project Integration, Commissioning, Handover, and Professional Application

1.      Engineering Project Integration and Cross-Functional Delivery Coordination

2.      Commissioning Planning, Testing, System Completion, and Start-Up Readiness

3.      Pre-Commissioning Activities, Inspection Records, Punch Lists, and Acceptance Requirements

4.      Operational Readiness, Handover Planning, Training, and Knowledge Transfer

5.      Defects Management, Warranty Administration, Outstanding Works, and Final Acceptance

6.      Engineering Project Closeout, Contract Closure, Financial Reconciliation, and Documentation

7.      Lessons Learned, Post-Project Review, Benefits Realisation, and Continuous Improvement

8.      Engineering Project Management Standards, Governance, Assurance, and Professional Best Practices

9.      Integrated Case Study: Planning, Executing, Controlling, and Closing an Engineering Project

10.  Capstone Exercise: Developing an Engineering Project Management Plan and Professional Action Plan