Training course

Overview

Construction Scheduling is a comprehensive professional training course designed to develop the knowledge and practical skills required to plan, sequence, schedule, monitor, and control construction activities throughout the project lifecycle. The course provides a structured understanding of construction scheduling principles, work breakdown structures, activity definition, construction logic, durations, dependencies, milestones, critical path analysis, resource planning, baseline development, and schedule updating. It is suitable for construction professionals seeking to strengthen their ability to develop reliable and practical project schedules for building, civil engineering, infrastructure, industrial, and engineering projects.

The course explores the complete construction scheduling process from project requirements and scope definition through detailed activity planning, network development, Critical Path Method (CPM), Program Evaluation and Review Technique (PERT), resource loading, schedule optimization, and progress measurement. Participants learn how to convert drawings, specifications, quantities, construction methodologies, procurement requirements, and site constraints into integrated schedules that support effective project execution. Practical scheduling techniques using tools such as Gantt charts, network diagrams, look-ahead schedules, resource histograms, progress curves, schedule registers, and schedule dashboards are incorporated throughout the training.

Advanced construction scheduling topics include baseline schedule management, schedule updating, critical and near-critical path analysis, float management, schedule risk, delay analysis, recovery planning, acceleration, resource leveling, productivity analysis, change control, and schedule forecasting. The course also introduces internationally recognized project management and risk management principles, including concepts aligned with PMI scheduling practices, ISO 21502, ISO 31000, Lean Construction, Last Planner System principles, and accepted project controls practices. Participants examine real-world scheduling challenges involving procurement delays, design changes, restricted workfronts, subcontractor performance, resource shortages, adverse site conditions, and project disruptions.

Through practical exercises, case studies, schedule development workshops, construction scenarios, and an integrated capstone project, participants will develop the ability to prepare, analyze, update, and optimize construction schedules. The training emphasizes practical decision-making, schedule quality, realistic sequencing, reliable progress measurement, early identification of schedule risks, and effective communication of schedule information to project teams and management. By the end of the course, participants will be equipped to apply professional construction scheduling techniques to improve project visibility, coordination, time control, forecasting, and delivery performance.

Course Duration

10 Days (80 Hours)

Target Participants

·         Construction planners and project planners

·         Planning engineers and project controls professionals

·         Project managers and construction managers

·         Site engineers and construction engineers

·         Quantity surveyors and cost engineers

·         Project controls managers and scheduling specialists

·         Construction supervisors and site supervisors

·         Contractors, subcontractors, and construction consultants

·         Procurement and commercial professionals involved in project scheduling

·         Engineers and technical professionals responsible for construction planning

·         Project management professionals seeking advanced scheduling skills

·         Professionals responsible for schedule reporting, monitoring, and project performance

Course Objectives

By the end of the training, participants will be able to:

·         Explain the principles, terminology, objectives, and applications of construction scheduling.

·         Develop work breakdown structures, activity lists, work packages, and schedule coding structures.

·         Translate construction drawings, specifications, quantities, and methodologies into schedule activities.

·         Establish logical relationships, durations, calendars, milestones, constraints, and construction sequences.

·         Develop construction schedules using Gantt charts, network diagrams, CPM, and PERT techniques.

·         Calculate and interpret critical paths, near-critical paths, float, and schedule logic.

·         Develop resource-loaded schedules and apply resource leveling and resource optimization techniques.

·         Establish, review, approve, and maintain reliable baseline construction schedules.

·         Monitor actual progress and update schedules using appropriate data dates and progress measurement techniques.

·         Analyze schedule variance, trends, critical path movement, float consumption, and forecast completion dates.

·         Apply look-ahead planning, Lean Construction, constraint management, and workflow reliability principles.

·         Assess schedule risks and incorporate risk mitigation, contingency, and scenario planning.

·         Analyze delays, disruptions, changes, and productivity impacts using appropriate scheduling techniques.

·         Develop recovery, mitigation, resequencing, fast-tracking, and acceleration strategies.

·         Use digital scheduling, project controls, BIM/4D concepts, dashboards, and construction analytics effectively.

·         Prepare professional schedule reports and communicate schedule information to project stakeholders.

·         Apply recognized scheduling, project management, risk management, and construction planning frameworks.

·         Develop an integrated construction schedule and defend scheduling decisions using professional evidence and analysis.

Course Content

Day 1: Construction Scheduling Foundations and Project Planning Frameworks

Module 1: Construction Scheduling Foundations and Project Planning Frameworks

1.      Introduction to Construction Scheduling — purpose, objectives, terminology, principles, and role in project delivery

2.      Construction Project Lifecycle — feasibility, design, procurement, construction, commissioning, handover, and closeout

3.      Scheduling Roles and Responsibilities — planners, project managers, engineers, contractors, subcontractors, and project controls teams

4.      Project Scope and Schedule Requirements — client requirements, contract obligations, milestones, completion dates, and schedule deliverables

5.      Work Breakdown Structure — developing WBS levels, control accounts, work packages, and schedule-oriented scope decomposition

6.      Construction Schedule Coding Structures — activity IDs, work breakdown codes, cost codes, location codes, responsibility codes, and discipline codes

7.      Construction Information for Scheduling — drawings, specifications, bills of quantities, method statements, procurement information, and site data

8.      Scheduling Standards and Frameworks — PMI scheduling concepts, ISO 21502, project controls principles, and professional scheduling practices

9.      Schedule Quality and Best Practices — completeness, logic integrity, traceability, realistic durations, appropriate detail, and maintainability

10.  Practical Exercise — develop the WBS, schedule structure, milestones, and preliminary activity register for a construction project

Day 2: Activity Development, Construction Logic, and Work Sequencing

Module 2: Activity Development, Construction Logic, and Work Sequencing

1.      Activity Definition — converting scope, drawings, specifications, and work packages into measurable schedule activities

2.      Activity Characteristics — descriptions, locations, quantities, production units, calendars, responsible parties, and deliverables

3.      Construction Methodology and Scheduling — linking method statements, construction techniques, and execution strategies to schedule activities

4.      Activity Duration Estimation — productivity rates, quantities, crew composition, historical data, expert judgment, and production assumptions

5.      Predecessors and Successors — identifying logical relationships between construction activities

6.      Scheduling Relationships — Finish-to-Start, Start-to-Start, Finish-to-Finish, Start-to-Finish, leads, and lags

7.      Construction Work Sequencing — earthworks, foundations, structural works, architectural works, MEP, external works, testing, and commissioning

8.      Location-Based and Zone-Based Scheduling — floors, buildings, workfronts, areas, zones, repetitive construction, and production flow

9.      Constraints and Schedule Logic — access restrictions, approvals, design information, materials, inspections, permits, temporary works, and workfront availability

10.  Case Study and Exercise — develop a logically connected construction activity network for a multi-discipline project

Day 3: Gantt Charts, Network Scheduling, CPM, and PERT

Module 3: Gantt Charts, Network Scheduling, CPM, and PERT

1.      Gantt Chart Development — activity representation, durations, sequencing, milestones, and schedule visualization

2.      Network Diagram Fundamentals — activity-on-node concepts, network logic, dependencies, and path analysis

3.      Critical Path Method — forward pass, backward pass, early dates, late dates, and total float

4.      Critical Path Identification — determining critical activities, critical paths, and critical completion drivers

5.      Float Analysis — total float, free float, path float, negative float, and practical interpretation

6.      Near-Critical Path Analysis — identifying paths that can become critical and monitoring float erosion

7.      PERT Scheduling — optimistic, most likely, pessimistic durations and expected activity duration concepts

8.      Milestone and Key Date Management — contractual milestones, sectional completion, interface dates, and commissioning milestones

9.      Schedule Logic Quality Review — open ends, excessive constraints, circular logic, unrealistic lags, and missing relationships

10.  Practical Scheduling Exercise — construct a CPM network, calculate critical path and float, and interpret the resulting schedule

Day 4: Resource Planning, Loading, Leveling, and Productivity

Module 4: Resource Planning, Loading, Leveling, and Productivity

1.      Construction Resource Planning — manpower, materials, equipment, subcontractors, supervision, and specialist resources

2.      Resource-Loaded Scheduling — assigning resources to activities and connecting schedules with project resource requirements

3.      Labour Productivity and Production Rates — crew outputs, productivity assumptions, work quantities, and performance factors

4.      Equipment Scheduling — equipment availability, utilization, operating cycles, downtime, and maintenance requirements

5.      Material Resource Planning — material quantities, delivery dates, storage requirements, and installation readiness

6.      Resource Histograms and Profiles — visualizing manpower, equipment, and resource demand over time

7.      Resource Leveling — resolving over-allocation and balancing resource demand with available capacity

8.      Resource Smoothing and Optimization — adjusting non-critical activities while protecting project completion requirements

9.      Productivity Monitoring — planned versus actual production, productivity trends, efficiency indicators, and corrective actions

10.  Practical Exercise — prepare a resource-loaded schedule, identify resource conflicts, and develop a leveling strategy

Day 5: Baseline Schedule Development, Review, and Approval

Module 5: Baseline Schedule Development, Review, and Approval

1.      Baseline Schedule Principles — purpose, structure, approval requirements, and relationship to project controls

2.      Schedule Development Workflow — scope validation, activity development, logic, durations, resources, calendars, and milestones

3.      Construction Calendars — working days, shifts, holidays, weather allowances, access restrictions, and productivity calendars

4.      Contractual Schedule Requirements — notice periods, key dates, completion obligations, reporting requirements, and schedule submission protocols

5.      Baseline Schedule Preparation — integrating engineering, procurement, construction, testing, commissioning, and handover

6.      Schedule Review Techniques — logic checks, duration review, resource analysis, milestone verification, and constructability review

7.      Baseline Quality Assurance — schedule integrity, traceability, coding consistency, version control, and auditability

8.      Schedule Approval and Governance — review comments, revisions, approvals, change authorization, and baseline protection

9.      Baseline Management — controlling changes, maintaining schedule history, documenting approved revisions, and preserving the original plan

10.  Case Study — review and approve a contractor baseline schedule while identifying logic, duration, resource, and constructability deficiencies

Day 6: Progress Measurement, Schedule Updating, and Performance Control

Module 6: Progress Measurement, Schedule Updating, and Performance Control

1.      Progress Measurement Fundamentals — defining progress rules, measurement methods, quantities, milestones, and weighted activities

2.      Data Date and Schedule Update Cycles — establishing reporting periods, cut-off dates, and update procedures

3.      Actual Start and Finish Dates — recording actual performance accurately and maintaining reliable schedule records

4.      Remaining Duration and Forecast Dates — updating incomplete activities and determining realistic completion forecasts

5.      Physical Progress and Earned Progress — measuring installed quantities, weighted progress, and construction outputs

6.      Planned Versus Actual Analysis — identifying schedule variance, progress gaps, and emerging performance issues

7.      Critical Path Movement — monitoring changes in critical activities, float consumption, and completion forecasts

8.      Schedule Performance Reporting — progress curves, milestone reports, dashboards, variance reports, and management summaries

9.      Schedule Data Quality — field verification, progress evidence, records, photographs, quantity measurements, and reporting consistency

10.  Practical Exercise — update a construction schedule from field progress data and prepare a professional schedule performance report

Day 7: Look-Ahead Planning, Lean Construction, and Workflow Reliability

Module 7: Look-Ahead Planning, Lean Construction, and Workflow Reliability

1.      Look-Ahead Planning — purpose, planning horizons, activity filtering, and coordination with the master schedule

2.      Weekly Work Planning — converting look-ahead activities into executable weekly commitments

3.      Constraint Management — identifying, assigning, tracking, and removing constraints before work execution

4.      Last Planner System Principles — should-can-will-did planning concepts and reliable workflow management

5.      Pull Planning — collaborative sequencing, milestone planning, and reverse planning from project objectives

6.      Lean Construction Principles — value generation, flow, waste reduction, continuous improvement, and production thinking

7.      Percent Plan Complete — measuring planning reliability and analyzing reasons for non-completion

8.      Workflow Reliability — managing workfront readiness, handoffs, crew continuity, and production interruptions

9.      Daily and Weekly Schedule Control — coordination meetings, field feedback, action tracking, and schedule adjustments

10.  Simulation Exercise — conduct a collaborative look-ahead and weekly planning workshop to remove constraints and improve workflow reliability

Day 8: Schedule Risk, Delay Analysis, and Forecasting

Module 8: Schedule Risk, Delay Analysis, and Forecasting

1.      Schedule Risk Management — identifying threats and opportunities affecting construction completion

2.      Risk Registers and Schedule Integration — linking risk events, activities, owners, mitigation actions, and schedule exposure

3.      Schedule Risk Analysis — uncertainty in durations, logic, resources, procurement, productivity, and external conditions

4.      Scenario Planning — evaluating alternative sequences, resource strategies, procurement scenarios, and execution approaches

5.      Delay Identification — distinguishing critical delays, non-critical delays, concurrent events, and emerging schedule threats

6.      Delay and Disruption Analysis — assessing effects on activities, logic, productivity, workfronts, and project completion

7.      Schedule Impact Assessment — evaluating changes, variations, design revisions, access restrictions, and other events

8.      Forecasting Completion — using current progress, remaining durations, critical path conditions, and trends to forecast completion

9.      Schedule Evidence and Records — contemporaneous records, progress reports, site diaries, correspondence, photographs, and schedule versions

10.  Case Study — analyze a delayed construction project, identify schedule impacts, assess completion risk, and develop a defensible forecast

Day 9: Recovery Planning, Acceleration, and Advanced Schedule Optimization

Module 9: Recovery Planning, Acceleration, and Advanced Schedule Optimization

1.      Schedule Recovery Principles — identifying causes of delay and establishing realistic recovery objectives

2.      Recovery Strategy Development — resequencing, resource reallocation, productivity improvement, workfront expansion, and parallel working

3.      Fast-Tracking — overlapping activities, interface management, quality considerations, and execution risks

4.      Crashing — increasing resources, additional shifts, extended working hours, and specialist subcontracting

5.      Acceleration Planning — evaluating cost, productivity, safety, quality, logistics, and schedule benefits and impacts

6.      Critical Path Optimization — analyzing alternative logic, near-critical paths, float opportunities, and bottlenecks

7.      Resource Optimization — reallocating labour, plant, materials, and subcontractor capacity to priority workfronts

8.      Recovery Schedule Development — establishing revised logic, milestones, resources, targets, monitoring mechanisms, and accountability

9.      Recovery Performance Monitoring — tracking recovery gains, productivity improvement, remaining risks, and completion forecasts

10.  Practical Case Study — develop and present a recovery schedule for a major project affected by procurement delays, design changes, and resource constraints

Day 10: Digital Construction Scheduling, Integrated Project Controls, and Capstone

Module 10: Digital Construction Scheduling, Integrated Project Controls, and Capstone

1.      Digital Construction Scheduling — principles of professional scheduling software, schedule databases, calendars, coding, and data management

2.      Advanced Scheduling Tools — practical application of scheduling software for CPM, resource loading, updating, filtering, and reporting

3.      BIM and 4D Scheduling — integrating three-dimensional models with time-based construction activities and sequencing

4.      4D Construction Simulation — visualizing work sequences, identifying spatial conflicts, improving constructability, and communicating plans

5.      Integrated Project Controls — connecting schedule, cost, resources, procurement, risk, change, and progress information

6.      Construction Dashboards and Analytics — KPIs, schedule trends, milestone performance, critical path indicators, and executive reporting

7.      Schedule Governance and Change Control — managing schedule revisions, approved changes, baseline integrity, and audit trails

8.      Advanced Schedule Optimization — scenario analysis, productivity improvement, resource optimization, risk response, and strategic sequencing

9.      Professional Schedule Presentation — communicating schedule status, risks, recovery actions, forecasts, and management decisions

10.  Integrated Capstone Project — develop, baseline, resource-load, update, analyze, optimize, and present a complete construction schedule for a realistic project scenario