Engineering Project Management Training Course

Participants can define a justified project mandate with clear objectives, constraints and approval requirements.

• Project charters linking business need, engineering objectives and expected benefits
• SMART objectives translated into measurable technical and operational outcomes
• Assumptions, constraints and dependencies recorded within the initiation document
• Option appraisal using cost, risk, operability and constructability criteria
• Preliminary business cases separating capital expenditure from operating expenditure
• Approval routes, delegated authorities and project tolerances established early

Participants can convert stakeholder needs into controlled engineering requirements and scope boundaries.

• Requirements traceability matrices connecting needs, specifications, tests and acceptance
• User requirements separated from design solutions and supplier proposals
• Scope statements defining inclusions, exclusions, boundaries and deliverable conditions
• Acceptance criteria specified for design, fabrication, installation and commissioning
• Interface requirements identified between disciplines, systems, sites and suppliers
• Scope creep indicators recognised before unapproved work consumes contingency

Participants can create a deliverable-based work breakdown structure with clear ownership.

• Deliverable-based work breakdown structures decomposed to controllable work packages
• Work package definitions covering outputs, ownership, duration and acceptance criteria
• Responsibility assignment matrices using RACI roles for technical deliverables
• Control accounts connecting scope, budget, schedule and accountable managers
• Engineering disciplines coordinated through defined package and interface ownership
• Work authorisation boundaries established between client, contractor and supplier teams

Participants can develop a logic-linked engineering schedule and identify its critical path.

• Activity networks built from work packages, dependencies and engineering deliverables
• Finish-to-start, start-to-start and lag relationships selected appropriately
• Critical Path Method calculations identifying float, critical activities and constraints
• Design, procurement, fabrication and construction sequences linked logically
• Milestones defined for approvals, long-lead equipment and commissioning readiness
• Schedule assumptions documented for productivity, access, permits and weather conditions

Participants can assess resource demand, capacity constraints and practical schedule options.

• Resource loading applied to engineering hours, crews, equipment and specialist services
• Capacity plans compared against internal availability and contractor mobilisation dates
• Resource levelling evaluated against schedule float, cost and delivery risk
• Skill constraints identified for design reviews, testing and commissioning activities
• Make-or-buy decisions assessed using capacity, capability and commercial criteria
• Resource histograms used to explain peak demand and staffing gaps

Participants can prepare an engineering project cost baseline with transparent estimating assumptions.

• Class estimates matched to project maturity, scope definition and uncertainty
• Bottom-up estimates built from quantities, labour rates, materials and equipment
• Contingency allowances separated from management reserve and scope allowances
• Cost breakdown structures aligned with work packages and control accounts
• Time-phased budgets converted into monthly expenditure and cash-flow forecasts
• Estimate basis documents recording exclusions, escalation and market assumptions

Participants can assess project uncertainty and assign proportionate response actions.

• Risk registers capturing causes, events, consequences, owners and response actions
• Probability-impact scoring calibrated for engineering safety, cost and schedule exposure
• Bow-tie analysis applied to high-consequence technical and construction risks
• Opportunities assessed alongside threats using value, feasibility and ownership criteria
• Risk responses selected through avoid, reduce, transfer, accept and exploit strategies
• Contingency drawdown linked to approved risk events and governance thresholds

Participants can establish quality controls that protect technical requirements and acceptance standards.

• Quality management plans connecting specifications, inspections, tests and records
• Inspection and test plans defining hold points, witness points and acceptance evidence
• Design reviews structured around requirements, hazards, operability and maintainability
• Non-conformance reports managed through containment, disposition and corrective action
• Root cause analysis using five whys and fishbone diagrams
• Configuration baselines protected through controlled drawings, specifications and revisions

Participants can plan procurement packages and manage contractor delivery against project controls.

• Procurement strategies selected for design responsibility, market capacity and risk allocation
• Bid packages defining scope, deliverables, schedules, standards and reporting requirements
• Technical bid evaluations separated from commercial assessment and clarification management
• Long-lead equipment tracked from requisition through manufacture, inspection and delivery
• Contractor progress assessed against approved schedules, quantities and quality records
• Supplier expediting plans focused on critical equipment, documents and manufacturing milestones

Participants can manage technical interfaces and communicate project decisions to affected stakeholders.

• Interface registers documenting boundaries, deliverables, dependencies and responsible parties
• Interface control documents governing physical, functional and data connections
• Stakeholder mapping using power, interest, influence and impact assessments
• Communication plans matched to decision rights, information needs and reporting frequency
• Technical decisions presented with options, impacts, recommendations and approvals required
• Community, regulator and operations concerns incorporated into project engagement plans

Participants can measure engineering project performance and forecast likely cost and schedule outcomes.

• Progress measurement rules defined for design, procurement, construction and commissioning
• Earned value measures calculated using planned value, earned value and actual cost
• Schedule performance index and cost performance index interpreted cautiously
• Estimate at completion forecast using current performance and remaining work assumptions
• Milestone trend analysis used to identify emerging schedule movement
• Weekly dashboards combining safety, quality, schedule, cost, risk and decisions

Participants can evaluate, approve and implement technical changes without losing baseline control.

• Change requests documenting technical rationale, alternatives, impacts and recommended action
• Impact analysis covering scope, cost, schedule, risk, quality and operability
• Change control boards applying authority limits and recorded approval decisions
• Configuration status accounting tracking approved versions, deviations and outstanding changes
• Baseline updates authorised only after approved scope and funding decisions
• Emergency changes controlled through retrospective review, evidence and corrective actions

Participants can run effective project reviews and prepare recovery plans for delivery variance.

• Project status reports distinguishing facts, forecasts, decisions and unresolved issues
• Look-ahead planning focused on near-term constraints, commitments and critical interfaces
• Variance analysis tracing schedule and cost movement to underlying causes
• Recovery schedules tested for resource feasibility, risk transfer and quality consequences
• Decision logs maintained with owner, due date, rationale and closure evidence
• Steering committee packs structured around exceptions, options and approval requests

Participants can plan controlled project handover, commissioning evidence and closeout activities.

• Commissioning plans linking systems completion, testing, training and operational readiness
• Punch lists prioritised by safety, functionality, documentation and handover impact
• As-built records verified against installed equipment, drawings and configuration status
• Operations handover packs including manuals, spares, warranties and maintenance requirements
• Lessons learned captured through structured reviews of decisions and outcomes
• Benefits handover assigned to operational owners after project closure

Participants can build, review and present a complete engineering project management plan for approval.

• Project charter, scope baseline and requirements traceability assembled into one plan
• Work breakdown structure, schedule and responsibility matrix checked for alignment
• Cost baseline, cash forecast and earned value rules incorporated
• Risk, quality, procurement, interface and change controls integrated coherently
• Management review tests assumptions, constraints, decisions and recovery readiness
• Formal presentation communicates project strategy, forecasts, risks and approval needs