Training course
Overview
Practical Engineering Project
Management is a hands-on professional training course designed to help
engineers, project professionals, technical specialists, supervisors,
coordinators, planners, and project support teams apply engineering project
management principles directly to real-world project activities. The course
focuses on practical methods for initiating, planning, executing, monitoring,
controlling, and closing engineering projects across construction,
infrastructure, manufacturing, energy, utilities, industrial, technology, and
other technical environments. Participants learn how to convert project
requirements into actionable work plans, coordinate resources and teams, manage
risks and issues, monitor progress, control costs, maintain quality, and
support successful project delivery.
The course emphasises practical
engineering project management tools and recognised frameworks, including
PMBOK-based practices, Work Breakdown Structures (WBS), Engineering Work
Breakdown Structures (EWBS), Critical Path Method (CPM), PERT, resource planning,
Earned Value Management (EVM), risk registers, RACI matrices, stakeholder
registers, change-control procedures, quality checklists, procurement trackers,
and project dashboards. Participants work directly with practical templates and
tools such as Excel project trackers, activity schedules, cost-control
worksheets, cash-flow trackers, risk matrices, daily progress reports, issue
logs, change registers, responsibility matrices, inspection records, and
performance dashboards.
Engineering project teams frequently
face practical challenges such as unclear requirements, changing designs,
resource shortages, material delays, schedule slippage, cost pressures,
technical interfaces, quality defects, contractor performance issues, safety
risks, incomplete documentation, and communication breakdowns. This course
develops practical skills for identifying and addressing these challenges
through structured planning, work-package management, resource coordination,
progress measurement, risk assessment, root-cause analysis, corrective action,
change management, and performance monitoring. Participants learn how to
interpret project information, identify deviations from approved plans,
document issues, escalate decisions, and implement practical improvements.
Through guided exercises,
engineering datasets, project planning workshops, scheduling activities, risk
scenarios, cost-control exercises, quality inspections, procurement
simulations, progress-reporting activities, and real-world case studies,
participants repeatedly practise the skills required for effective engineering
project delivery. The course progresses from practical project foundations and
initiation through work planning, scheduling, resources, execution, risk,
quality, procurement, project controls, change management, performance
improvement, commissioning, handover, and closeout. The final capstone
integrates the tools and techniques learned throughout the course into a
practical engineering project management scenario.
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 support professionals
• Civil, mechanical, electrical, structural, chemical, industrial,
environmental, and other engineering specialists
• Engineering supervisors, technical team leaders, and site coordinators
• Construction professionals and site management personnel
• Design engineers, design coordinators, and technical consultants
• Planning engineers, project planners, schedulers, and project controls
professionals
• Quantity surveyors, cost engineers, cost controllers, and commercial
professionals
• Procurement, contracts, supplier, and logistics professionals supporting
engineering projects
• Quality assurance, quality control, inspection, and testing personnel
• Health, safety, environmental, and sustainability professionals
• Maintenance, reliability, asset management, and facilities professionals
• Commissioning, testing, start-up, handover, and closeout teams
• Contractors, subcontractors, consultants, and engineering service providers
• Professionals working in infrastructure, construction, energy, utilities,
manufacturing, industrial, transport, and technology projects
• Government, public-sector, infrastructure, and development project
professionals
• Professionals responsible for project documentation, reporting, scheduling,
or cost tracking
• Professionals transitioning into engineering project management roles
Course
Objectives
By the end of the training,
participants will be able to:
• Apply practical engineering project management principles throughout the
project lifecycle
• Define project objectives, scope, deliverables, requirements, assumptions,
constraints, and acceptance criteria
• Develop practical project charters, stakeholder registers, responsibility
structures, and project initiation documents
• Translate engineering requirements into work packages, activities,
milestones, and practical execution plans
• Develop Engineering Work Breakdown Structures and Work Breakdown Structures
for engineering projects
• Build practical project schedules using activity sequencing, dependencies,
milestones, CPM, and basic PERT techniques
• Prepare short-term, medium-term, and integrated project work plans
• Plan and coordinate labour, equipment, materials, facilities, and other
project resources
• Develop engineering project cost estimates, budgets, cash-flow plans, and
cost-control trackers
• Apply practical Earned Value Management and planned-versus-actual performance
analysis
• Identify, assess, prioritise, and monitor engineering project risks and
opportunities
• Develop and maintain practical risk registers, risk-response plans, and
contingency actions
• Coordinate engineering design, technical interfaces, constructability,
approvals, and multidisciplinary activities
• Apply quality assurance and quality control practices including inspections,
testing, checklists, and acceptance criteria
• Identify nonconformances, analyse root causes, implement corrective actions,
and prevent recurring quality problems
• Support procurement planning, supplier coordination, contractor management,
material tracking, and contract administration
• Apply practical stakeholder communication, coordination, meeting, reporting,
and escalation techniques
• Establish and use practical change-control, issue-management, and
decision-tracking processes
• Monitor project progress using quantities, milestones, productivity indicators,
KPIs, dashboards, and progress reports
• Identify schedule delays, cost variances, resource constraints, quality
problems, and other project deviations
• Apply Five Whys, Fishbone, Pareto, and other practical problem-solving and
root-cause analysis techniques
• Develop corrective actions, recovery plans, resource adjustments, and
productivity improvement measures
• Integrate health, safety, environmental, sustainability, regulatory, and
compliance requirements into project execution
• Manage project documentation, technical records, approvals, configuration
information, and reporting requirements
• Support commissioning, testing, operational readiness, punch-list management,
handover, and project closeout
• Use practical tools including Excel trackers, schedules, risk registers, RACI
matrices, checklists, change logs, cost reports, and dashboards
• Apply PMBOK-based practices, risk-based management, quality principles,
project controls, and continuous improvement techniques
• Communicate project information, risks, issues, decisions, progress, and
corrective actions effectively to project stakeholders
• Integrate practical engineering project management techniques through case
studies, workplace exercises, simulations, and an applied capstone project
Course
Content
Day
1: Practical Foundations of Engineering Project Management and Project
Initiation
Module 1: Practical
Foundations of Engineering Project Management and Project Initiation
1. Practical
Engineering Project Management Principles and Project Lifecycle
2. Engineering
Project Objectives, Scope, Requirements, Constraints, and Deliverables
3. Project
Initiation, Business Cases, Project Charters, and Success Criteria
4. Stakeholder
Identification, Stakeholder Registers, Communication, and Engagement
5. Work
Breakdown Structures, Engineering Work Packages, and Deliverable Planning
6. RACI
Matrices, Roles, Responsibilities, Accountability, and Escalation
7. Engineering
Project Management Plans and Practical Coordination Structures
8. Project
Documentation, Drawing Registers, Technical Records, and Information Control
9. Daily
and Weekly Project Coordination, Meetings, Action Registers, and Reporting
10. Practical
Case Study: Developing the Foundation and Initial Management Plan for an
Engineering Project
Day
2: Practical Engineering Planning, Scheduling, Resources, and Cost Control
Module 2: Practical
Engineering Planning, Scheduling, Resources, and Cost Control
1. Practical
Engineering Work Planning and Workfront Preparation
2. Activity
Definition, Sequencing, Dependencies, Milestones, and Schedule Development
3. Critical
Path Method, Float Analysis, and Identifying Schedule-Critical Work
4. PERT,
Three-Point Estimation, and Managing Schedule Uncertainty
5. Labour,
Equipment, Materials, and Resource Planning
6. Resource
Levelling, Capacity Constraints, Bottleneck Identification, and Productivity
7. Engineering
Cost Estimation, Budget Preparation, and Cost Baselines
8. Cash-Flow
Tracking, Commitments, Actual Costs, Variances, and Cost Forecasting
9. Practical
Excel Project Schedules, Cost Trackers, Resource Sheets, and Progress Tools
10. Hands-On
Exercise: Developing an Engineering Project Schedule, Resource Plan, and
Cost-Control Tracker
Day
3: Practical Engineering Risk, Quality, Procurement, and Execution
Module 3: Practical
Engineering Risk, Quality, Procurement, and Execution
1. Practical
Engineering Project Risk Identification and Risk Register Development
2. Risk
Assessment, Prioritisation, Risk Owners, and Response Planning
3. Daily
Risk Monitoring, Escalation, Contingency Actions, and Risk Communication
4. Engineering
Design Coordination, Technical Interfaces, Constructability, and Workfront
Readiness
5. Quality
Assurance, Quality Control, Inspection, Testing, and Acceptance Procedures
6. Checklists,
Inspection and Test Plans, Nonconformance, and Corrective Actions
7. Root-Cause
Analysis, Five Whys, Fishbone, Pareto, and Rework Prevention
8. Procurement
Tracking, Supplier Coordination, Material Deliveries, and Long-Lead Items
9. Contractor
and Subcontractor Coordination, Performance Monitoring, and Contract Issues
10. Practical
Simulation: Resolving an Engineering Project Risk, Quality, Procurement, and
Execution Problem
Day
4: Practical Project Controls, Change Management, and Performance Improvement
Module 4: Practical Project
Controls, Change Management, and Performance Improvement
1. Practical
Project Controls, Baselines, Work Package Tracking, and Control Processes
2. Planned
Versus Actual Progress, Quantity Measurement, Milestones, and Completion Tracking
3. Schedule
Monitoring, Delay Identification, Constraints, and Early Warning Indicators
4. Cost
Monitoring, Variance Analysis, Productivity Measurement, and Cost Forecasting
5. Earned
Value Management, Performance Indicators, and Practical Project Health Assessment
6. Engineering
Change Management, Change Requests, Technical Instructions, and Approvals
7. Change
Impact Assessment for Scope, Design, Schedule, Cost, Resources, and Quality
8. Issue
Logs, Corrective Actions, Decision Registers, and Escalation Procedures
9. Project
Recovery, Schedule Optimisation, Resource Reallocation, and Productivity
Improvement
10. Hands-On
Simulation: Analysing Project Underperformance and Developing a Practical
Recovery Plan
Day
5: Practical Engineering Project Integration, Commissioning, Handover, and
Capstone
Module 5: Practical
Engineering Project Integration, Commissioning, Handover, and Capstone
1. Practical
Project Integration and Multidisciplinary Engineering Coordination
2. Commissioning
Planning, System Completion, Testing, and Start-Up Preparation
3. Pre-Commissioning
Checks, Inspection Records, Punch Lists, and Completion Tracking
4. Operational
Readiness, Handover Planning, Training, and Knowledge Transfer
5. Defects
Management, Warranty Issues, Outstanding Works, and Final Acceptance
6. As-Built
Documentation, Technical Records, Asset Information, and Project Closeout
7. Contract
Closure, Financial Reconciliation, Lessons Learned, and Final Reporting
8. Practical
Engineering Project Management Standards, Governance, Best Practices, and
Continuous Improvement
9. Integrated
Case Study: Managing an Engineering Project from Initiation Through Handover
10. Capstone
Exercise: Developing and Presenting a Practical Engineering Project Management
Plan


