Training course
Overview
Construction Scheduling for
Managers is a comprehensive professional training course designed to
equip construction and project managers with the knowledge and practical
management skills required to plan, coordinate, monitor, and control project
schedules effectively. The course focuses on the managerial application of
construction scheduling principles, enabling managers to translate project
objectives, contractual commitments, construction methodologies, resources,
procurement requirements, and site conditions into realistic and controllable
schedules. It provides a structured approach to schedule governance,
coordination, performance monitoring, risk management, decision-making, and
project delivery.
The course covers the complete
construction scheduling management cycle, beginning with scope definition, work
breakdown structures, schedule requirements, activity development, construction
sequencing, duration estimation, and milestone planning. Managers learn how to
evaluate schedule logic, review critical paths, assess resource requirements,
coordinate engineering and procurement interfaces, establish baseline
schedules, and ensure alignment between the construction programme and project
objectives. Practical management tools include Gantt charts, network diagrams,
critical path analysis, resource histograms, look-ahead schedules, milestone
trackers, progress curves, schedule dashboards, constraint registers, and
management action plans.
Advanced management topics include
schedule performance analysis, progress measurement, forecasting, critical path
movement, float management, schedule risk, delay and change assessment,
recovery planning, acceleration, resource optimization, and integrated project
controls. The course introduces relevant professional frameworks and practices
aligned with PMI scheduling principles, ISO 21502, ISO 31000, Lean
Construction, Last Planner System concepts, and established construction
project controls methodologies. Managers also explore BIM and 4D scheduling,
digital dashboards, schedule analytics, and the integration of schedule
information with cost, procurement, risk, resources, quality, safety, and
commercial management.
The course uses practical
exercises, construction case studies, management simulations, schedule review
workshops, real-world project scenarios, and an integrated capstone exercise to
develop managerial decision-making capability. Participants will learn how to
challenge unrealistic schedules, identify emerging risks, coordinate corrective
actions, evaluate recovery strategies, and communicate schedule performance
clearly to senior management and project stakeholders. By the end of the
training, managers will be able to establish effective scheduling governance,
improve project coordination, support reliable forecasting, manage schedule
risks, and make informed decisions that strengthen construction project time
performance and delivery control.
Course
Duration
10 Days (80 Hours)
Target
Participants
·
Construction managers and project managers
·
Project controls managers and planning managers
·
Senior engineers and construction engineers
·
Site managers and project coordinators
·
Planning engineers with managerial
responsibilities
·
Quantity surveyors and commercial managers
involved in schedule control
·
Procurement and contract managers supporting
construction delivery
·
Engineering managers and technical managers
·
Contractors and subcontractors managing project
execution
·
Consultants and client representatives
responsible for project monitoring
·
Professionals responsible for schedule
governance and performance reporting
·
Managers seeking practical expertise in
construction scheduling and project controls
Course
Objectives
By the end of the training,
participants will be able to:
·
Explain the managerial role of construction
scheduling throughout the project lifecycle.
·
Establish effective schedule governance,
responsibilities, review procedures, and reporting structures.
·
Interpret project scope, contractual
requirements, drawings, specifications, quantities, and construction
methodologies for scheduling purposes.
·
Develop and review WBS structures, activity
registers, milestones, coding systems, calendars, and schedule hierarchies.
·
Evaluate construction sequences, activity
durations, dependencies, constraints, and workfront requirements.
·
Apply Gantt charts, network diagrams, CPM,
critical path analysis, and float analysis for management decision-making.
·
Review and challenge resource-loaded schedules
covering labour, equipment, materials, and subcontractor capacity.
·
Establish, review, approve, and control project
baseline schedules.
·
Monitor actual progress and assess
planned-versus-actual performance using reliable project information.
·
Interpret critical path movement, float
consumption, schedule variance, trends, and completion forecasts.
·
Implement look-ahead planning, constraint
management, Lean Construction, and workflow reliability practices.
·
Integrate schedule risk management with project
planning and management decisions.
·
Evaluate delays, disruptions, changes,
procurement issues, and productivity problems affecting project completion.
·
Develop practical recovery, resequencing,
fast-tracking, crashing, and acceleration strategies.
·
Coordinate schedule interfaces between
engineering, procurement, construction, commissioning, and handover.
·
Integrate scheduling with cost, risk, resources,
procurement, quality, safety, and commercial project controls.
·
Use digital scheduling, BIM/4D concepts,
dashboards, and construction analytics for management reporting.
·
Communicate schedule risks, performance issues,
forecasts, and recovery actions effectively to stakeholders.
·
Apply professional scheduling practices to
improve project coordination, accountability, forecasting, and delivery
performance.
·
Develop and present an integrated
management-level construction schedule through a practical capstone project.
Course
Content
Day
1: Construction Scheduling Foundations, Management Responsibilities, and
Governance
Module 1: Construction Scheduling
Foundations, Management Responsibilities, and Governance
1. Construction
Scheduling for Managers — purpose, objectives, terminology, management
applications, and strategic importance
2. Construction
Project Lifecycle — feasibility, design, procurement, construction,
commissioning, handover, and closeout
3. Managerial
Responsibilities in Scheduling — planning ownership, coordination,
decision-making, accountability, and escalation
4. Project
Scope and Schedule Requirements — contractual obligations, deliverables, key
dates, milestones, and completion requirements
5. Work
Breakdown Structure — translating project scope into manageable control
accounts, work packages, and schedule components
6. Schedule
Hierarchies — master schedules, contract programmes, detailed construction
schedules, look-ahead plans, and recovery schedules
7. Schedule
Governance — roles, responsibilities, review gates, approval procedures,
reporting cycles, and management controls
8. Scheduling
Standards and Frameworks — PMI scheduling principles, ISO 21502, project
controls practices, and professional governance
9. Schedule
Quality Management — completeness, logic, realistic durations, traceability,
constraints, and schedule maintainability
10. Management
Exercise — review a construction schedule governance framework and establish
management responsibilities for a major project
Day
2: Construction Methodology, Sequencing, and Execution Strategy
Module 2: Construction Methodology,
Sequencing, and Execution Strategy
1. Construction
Methodology and Scheduling — linking execution strategies, method statements,
and project schedules
2. Activity
Development — defining measurable activities, work packages, locations,
responsibilities, and deliverables
3. Construction
Duration Management — productivity rates, quantities, crew outputs, historical
data, and managerial validation
4. Construction
Logic — predecessors, successors, dependencies, leads, lags, milestones, and
interface relationships
5. Work
Sequencing — earthworks, foundations, structural works, architectural works,
MEP, external works, and commissioning
6. Workfront
Management — access, permits, temporary works, site readiness, materials,
information, and predecessor completion
7. Constructability
Review — identifying sequencing conflicts, access limitations, congestion,
interface problems, and execution constraints
8. Engineering
and Procurement Interfaces — design deliverables, approvals, material release,
fabrication, delivery, and installation
9. Construction
Execution Strategy — balancing time, resources, productivity, safety, quality,
and commercial requirements
10. Case Study
Exercise — review and optimize the construction sequence for a complex
multi-discipline project
Day
3: Schedule Management, Critical Path, and Baseline Control
Module 3: Schedule Management, Critical
Path, and Baseline Control
1. Gantt
Charts and Management Schedules — interpreting activities, durations,
milestones, dependencies, and management information
2. Network
Scheduling Fundamentals — network diagrams, logic relationships, paths, and
schedule calculations
3. Critical
Path Method — understanding forward pass, backward pass, early dates, late
dates, and total float
4. Critical
Path Management — identifying completion-driving activities and monitoring
critical path changes
5. Near-Critical
Path Analysis — identifying activities and paths that could become critical
6. Float
Management — total float, free float, float consumption, negative float, and
management implications
7. Schedule
Constraints — mandatory dates, contractual constraints, imposed dates, and
inappropriate restrictions
8. Baseline
Schedule Development — integrating scope, logic, durations, resources,
procurement, commissioning, and handover
9. Baseline
Governance — review, approval, change control, version management, and protection
of the approved programme
10. Management
Case Study — evaluate a proposed baseline schedule and prepare a
management-level schedule approval recommendation
Day
4: Resource Management, Productivity, and Capacity Planning
Module 4: Resource Management, Productivity,
and Capacity Planning
1. Strategic
Resource Planning — manpower, equipment, materials, subcontractors, specialist
trades, and management resources
2. Resource-Loaded
Schedules — interpreting resource assignments and evaluating resource
requirements against planned activities
3. Manpower
Planning — workforce requirements, crew composition, shifts, productivity, and
labour availability
4. Equipment
Capacity Planning — equipment utilization, operating cycles, availability,
downtime, and maintenance
5. Material
Readiness and Scheduling — procurement, delivery, storage, inspection, release,
and installation requirements
6. Resource
Histograms and Demand Profiles — evaluating resource peaks, shortages, and
capacity conflicts
7. Resource
Leveling — resolving resource over-allocation while protecting critical
milestones
8. Productivity
Management — planned versus actual production, productivity losses, efficiency
indicators, and corrective action
9. Capacity
and Subcontractor Management — balancing organizational capacity, specialist
resources, subcontractor commitments, and workfront requirements
10. Management
Simulation — analyze resource conflicts and develop a capacity optimization
plan for a delayed construction work programme
Day
5: Procurement, Logistics, and Construction Readiness Management
Module 5: Procurement, Logistics, and
Construction Readiness Management
1. Procurement
Scheduling Principles — connecting procurement activities with engineering,
construction, and project milestones
2. Procurement
Work Breakdown — requisitions, specifications, tendering, approvals, purchase
orders, fabrication, inspection, and delivery
3. Long-Lead
Item Management — identifying critical materials and equipment and protecting
their required-on-site dates
4. Engineering-Procurement
Interfaces — design release, technical approvals, vendor information,
fabrication drawings, and material release
5. Supplier
and Subcontractor Schedule Integration — aligning external parties with the
master construction programme
6. Expediting
and Schedule Monitoring — tracking procurement progress, delivery forecasts,
supplier risks, and corrective actions
7. Site
Logistics Scheduling — access, traffic, laydown, storage, temporary facilities,
utilities, cranes, and material flow
8. Construction
Readiness — workfront release, permits, drawings, materials, labour, equipment,
quality requirements, and safety prerequisites
9. Procurement
and Logistics Risk — supply-chain disruption, market constraints,
transportation risks, and mitigation planning
10. Management
Case Study — develop a procurement and logistics schedule strategy for a
project containing multiple long-lead materials and critical interfaces
Day
6: Risk, Constraints, Quality, Safety, and Environmental Management
Module 6: Risk, Constraints, Quality,
Safety, and Environmental Management
1. Construction
Schedule Risk Management — identifying threats and opportunities affecting time
performance
2. ISO
31000 Risk Principles — risk identification, assessment, treatment, ownership,
monitoring, and communication
3. Schedule
Risk Registers — linking risks to activities, milestones, owners, mitigation
actions, and completion exposure
4. Constraint
Management — identifying design, procurement, access, resource, approval,
safety, and quality constraints
5. Quality
and Schedule Integration — inspections, testing, ITPs, hold points, witness
points, NCRs, and corrective actions
6. Safety
and Schedule Integration — permits, work sequencing, high-risk activities,
workfront readiness, and critical safety controls
7. Environmental
Schedule Considerations — environmental permits, weather, dust, noise, waste,
water, pollution controls, and sustainability requirements
8. Interface
Risk Management — managing handoffs and dependencies between engineering,
procurement, contractors, subcontractors, and stakeholders
9. Management
Escalation and Corrective Action — risk thresholds, escalation procedures,
ownership, action tracking, and decision-making
10. Scenario
Exercise — develop a schedule risk and constraint-management plan for a project
facing design, procurement, quality, and site-access risks
Day
7: Look-Ahead Planning, Lean Construction, and Operational Coordination
Module 7: Look-Ahead Planning, Lean
Construction, and Operational Coordination
1. Look-Ahead
Planning for Managers — planning horizons, priorities, interfaces, and
alignment with the master schedule
2. Weekly
Work Planning — translating strategic schedule objectives into executable work
commitments
3. Constraint
Removal Management — identifying owners, deadlines, required actions, and
verification of constraint closure
4. Last
Planner System Concepts — should-can-will-did planning and reliable workflow
management
5. Pull
Planning — collaborative sequencing, milestone planning, handoffs, and reverse
planning
6. Lean
Construction Principles — value, flow, waste reduction, variability management,
and continuous improvement
7. Percent
Plan Complete — evaluating planning reliability and identifying causes of
non-completion
8. Workflow
and Workfront Reliability — managing readiness, crew continuity, handoffs, congestion,
and production interruptions
9. Management
Coordination Meetings — integrating planning, engineering, procurement,
commercial, quality, safety, and site teams
10. Management
Simulation — lead a look-ahead planning meeting, resolve constraints, assign
actions, and establish weekly execution commitments
Day
8: Progress Control, Performance Management, Forecasting, and Reporting
Module 8: Progress Control, Performance Management,
Forecasting, and Reporting
1. Progress
Measurement Systems — quantity-based, milestone-based, weighted,
duration-based, and earned-progress approaches
2. Data
Date and Schedule Updating — reporting cycles, cut-off dates, status
procedures, and update responsibilities
3. Field
Progress Verification — site records, installed quantities, photographs,
inspection records, and supervisor confirmations
4. Planned
Versus Actual Performance — identifying schedule variance, progress gaps,
trends, and performance deterioration
5. Critical
Path and Float Monitoring — tracking path movement, float consumption,
milestone risks, and completion-date changes
6. Progress
Curves and Performance Indicators — S-curves, milestone performance,
productivity indicators, and schedule KPIs
7. Completion
Forecasting — evaluating remaining work, productivity trends, critical path
conditions, and forecast completion dates
8. Management
Dashboards — presenting schedule health, milestones, risks, constraints,
trends, and corrective actions
9. Executive
and Stakeholder Reporting — communicating schedule performance clearly and
focusing management attention on material issues
10. Practical
Exercise — analyze project progress data, identify performance problems,
forecast completion, and prepare a management schedule dashboard
Day
9: Delay Management, Project Recovery, and Advanced Planning Decisions
Module 9: Delay Management, Project
Recovery, and Advanced Planning Decisions
1. Construction
Delay Management — identifying delay events, causes, effects, and management
responsibilities
2. Delay
and Disruption Assessment — evaluating effects on activities, workfronts,
productivity, interfaces, and project completion
3. Change
and Variation Impacts — assessing schedule implications of design changes,
instructions, scope modifications, and variations
4. Schedule
Impact Analysis — linking events to activities, logic, milestones, float, and
completion forecasts
5. Recovery
Planning — establishing recovery objectives, revised sequences, resources,
targets, and accountability
6. Resequencing
Strategies — alternative work sequences, workfront redistribution, parallel
activities, and interface coordination
7. Fast-Tracking
and Crashing — evaluating schedule compression methods and their cost, risk,
quality, and safety implications
8. Acceleration
Management — managing additional shifts, resources, equipment, subcontractors,
and productivity initiatives
9. Recovery
Monitoring — measuring recovery gains, remaining exposure, critical path
movement, and forecast improvements
10. Management
Case Study — develop and defend a recovery strategy for a delayed project
affected by procurement, design, productivity, and resource constraints
Day
10: Strategic Construction Scheduling, Digital Tools, Governance, and Capstone
Module 10: Strategic Construction
Scheduling, Digital Tools, Governance, and Capstone
1. Strategic
Scheduling for Construction Managers — aligning project schedules with business
objectives, contractual commitments, and delivery strategy
2. Digital
Scheduling Systems — scheduling software, databases, calendars, activity
coding, baselines, updates, and controlled reporting
3. BIM
and 4D Scheduling — linking construction models with activities, locations,
sequences, and project timelines
4. 4D
Construction Visualization — evaluating constructability, work sequencing,
spatial interfaces, and stakeholder communication
5. Integrated
Project Controls — connecting schedule, cost, procurement, risk, resources,
change, quality, and progress
6. Construction
Analytics and Dashboards — schedule KPIs, trends, critical path indicators,
productivity data, forecasting, and management analytics
7. Scenario
and Strategic Schedule Analysis — evaluating alternative execution strategies,
resource scenarios, risks, and completion outcomes
8. Schedule
Governance and Continuous Improvement — auditability, lessons learned, schedule
maturity, process improvement, and organizational capability
9. Executive
Schedule Communication — presenting schedule health, risks, forecasts, recovery
requirements, and management decisions
10. Integrated
Management Capstone — develop, review, baseline, resource-assess, update,
analyze, optimize, and present a complete management-level construction
schedule for a realistic project scenario


