Course Introduction
Project Schedule Delay Analysis Course provides project professionals with a structured and practical approach to identifying, analyzing, quantifying, and communicating delays that affect project completion, milestones, contractual commitments, and delivery performance. The course examines the relationship between baseline schedules, updated schedules, actual progress, critical paths, float, changes, events, and contractual obligations. Participants learn how to distinguish genuine schedule delay from normal performance variation and establish evidence-based conclusions that can support management decisions, recovery planning, commercial discussions, and formal claims processes.
The course begins with the foundations of schedule delay analysis, including schedule development, baseline integrity, contemporaneous updates, activity status, logic relationships, calendars, constraints, milestones, and critical-path identification. Participants learn why the quality of the underlying schedule is fundamental to any credible delay assessment. The course addresses common schedule weaknesses such as incomplete logic, excessive constraints, unrealistic durations, incorrect progress, missing activities, inappropriate relationships, and inconsistent update practices, explaining how these deficiencies can affect conclusions about causation, responsibility, and project completion.
A major focus is placed on the different methodologies used to analyze schedule delay. Participants examine techniques including as-planned versus as-built analysis, impacted as-planned analysis, time impact analysis, windows analysis, contemporaneous period analysis, as-planned versus as-built comparisons, collapsed as-built approaches, and other forensic schedule techniques. The course explains the appropriate context, data requirements, assumptions, advantages, limitations, and risks associated with each method, enabling participants to select an approach that is proportionate to the project circumstances and sufficiently robust for the intended decision or contractual purpose.
Participants also develop advanced capabilities for analyzing causation, concurrency, critical-path effects, float consumption, acceleration, disruption, mitigation, and responsibility. The course explores how multiple delay events may interact and how changes in logic, sequencing, resources, access, design information, procurement, approvals, weather, contractors, and external conditions can influence project completion. Particular attention is given to concurrent delay and the importance of establishing a defensible chronology that separates delay events, their impacts, responsibility, mitigation measures, and resulting effects on contractual or forecast completion dates.
The course integrates technical schedule analysis with project controls, contract administration, risk management, change control, and commercial governance. Participants learn how to build an evidence trail using schedule updates, correspondence, meeting records, progress reports, drawings, change documentation, site records, procurement information, resource data, and contemporaneous project evidence. They also learn how to present findings through delay analysis reports, timelines, critical-path narratives, impact assessments, executive summaries, and supporting schedules. The objective is to ensure that conclusions are transparent, traceable, technically defensible, and understandable to both technical and non-technical stakeholders.
Modern delay analysis increasingly benefits from integrated digital project controls and advanced analytics. The course therefore explores automated schedule comparison, forensic data analysis, progress verification, predictive delay detection, machine learning, AI-assisted chronology development, and digital evidence management. Participants consider how these technologies can improve analytical efficiency while recognizing the importance of data integrity, methodological transparency, cybersecurity, explainability, and human expert judgment. By the end of the course, participants will be able to conduct structured schedule delay investigations, select and apply appropriate analytical methods, evaluate causation and concurrency, quantify schedule impacts, and communicate defensible conclusions for project recovery, management, and commercial decision-making.
Duration
5 days
Who Should Attend
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Project managers responsible for schedule performance and delay management
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Project controls managers overseeing schedule analysis and performance investigations
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Senior project planners and schedulers conducting delay and forensic schedule analysis
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Project controls engineers and analysts supporting schedule investigations
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Planning managers responsible for baseline and update schedule integrity
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Contract managers involved in extension-of-time and delay assessments
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Commercial managers managing claims, variations, disruption, and contractual exposure
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Quantity surveyors evaluating the time-related effects of project events and changes
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Claims consultants and specialists conducting forensic schedule assessments
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Project lawyers and legal professionals requiring a stronger understanding of schedule analysis
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Project directors and executives managing delayed or disputed projects
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Construction managers investigating causes and impacts of site-based delays
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Risk managers assessing schedule exposure, delay risks, and mitigation strategies
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Project assurance and independent review professionals evaluating schedule credibility
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Consultants supporting project recovery, claims preparation, dispute resolution, and schedule governance
Course Objectives
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Explain the principles, terminology, evidence requirements, and practical applications of project schedule delay analysis.
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Assess baseline and updated schedule quality to determine whether project schedules provide a reliable foundation for delay analysis.
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Identify critical paths, near-critical paths, float, dependencies, constraints, and other schedule characteristics relevant to delay investigations.
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Select appropriate delay analysis methodologies based on project circumstances, available evidence, schedule quality, contractual requirements, and analytical objectives.
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Conduct structured analysis of delay events, causation, responsibility, critical-path effects, mitigation, acceleration, and resulting completion-date impacts.
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Evaluate concurrent delay and interacting delay events using transparent chronology, logic analysis, contemporaneous evidence, and defensible assumptions.
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Integrate schedule updates, project records, change documentation, correspondence, progress evidence, and other project data into a robust delay analysis.
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Quantify schedule impacts and communicate findings through clear delay narratives, analytical schedules, timelines, reports, and management recommendations.
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Support extension-of-time assessments, recovery planning, commercial negotiations, claims preparation, dispute avoidance, and executive decision-making with reliable schedule evidence.
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Apply digital forensic tools, automated schedule comparison, predictive analytics, and artificial intelligence responsibly while maintaining methodological transparency and human oversight.
Comprehensive Course Outline
Module 1: Foundations of Project Schedule Delay Analysis
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Defining schedule delay, disruption, acceleration, slippage, critical delay, excusable delay, and other concepts used in project performance assessment.
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Understanding the role of delay analysis in project management, project controls, contract administration, claims, recovery planning, and dispute resolution.
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Examining the relationship between baseline schedules, updates, actual progress, forecast dates, milestones, critical paths, and contractual completion requirements.
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Establishing the principles of objectivity, contemporaneity, traceability, causation, transparency, and evidence-based analysis.
Module 2: Schedule Baselines, Updates, and Data Integrity
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Assessing schedule baseline quality, activity definition, logic relationships, calendars, constraints, milestones, durations, and coding structures.
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Reviewing schedule updates for accurate status dates, actual starts and finishes, remaining durations, progress, logic changes, and forecast information.
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Identifying schedule-quality deficiencies such as open ends, broken logic, excessive constraints, unrealistic durations, and inconsistent progress measurement.
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Establishing reliable schedule data sets and documentation standards for forensic analysis, management review, and contractual assessment.
Module 3: Delay Events, Chronology, and Causation
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Establishing comprehensive delay-event chronologies using correspondence, schedules, progress reports, change records, site records, approvals, and other evidence.
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Differentiating delay events from their consequences and identifying the causal relationships between events, activities, milestones, and completion dates.
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Evaluating causes associated with design changes, access restrictions, procurement, resources, approvals, weather, technical problems, contractors, and external conditions.
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Developing evidence-based event narratives that identify timing, responsibility, affected work, mitigation, and resulting schedule consequences.
Module 4: Critical Path, Float, and Delay Impact Assessment
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Identifying the critical and near-critical paths applicable during different periods of project execution and understanding their relevance to delay analysis.
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Assessing how delay events consume float, affect critical-path activities, shift controlling sequences, and influence project completion dates.
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Analyzing changes in network logic, sequencing, resource availability, dependencies, and constraints that alter the schedule-driving path.
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Distinguishing between activity-level delay and delay that actually affects contractual or forecast project completion.
Module 5: Schedule Delay Analysis Methodologies
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Applying as-planned versus as-built analysis and understanding its appropriate use, data requirements, strengths, and limitations.
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Applying impacted as-planned and time impact analysis approaches to evaluate the effects of specific delay events on the planned schedule.
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Exploring windows analysis and contemporaneous period analysis for examining evolving critical paths and delay conditions throughout project execution.
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Examining as-planned versus as-built and collapsed as-built approaches while understanding assumptions, evidence requirements, and analytical limitations.
Module 6: Concurrent Delay, Mitigation, and Acceleration
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Defining concurrent delay and evaluating multiple delay events occurring simultaneously or affecting overlapping project periods.
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Analyzing responsibility, causation, criticality, timing, and interaction between contractor, employer, supplier, design, and external delay events.
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Evaluating mitigation measures, resequencing, resource changes, recovery actions, and acceleration efforts undertaken to reduce project delay.
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Assessing whether recovery measures changed the critical path, reduced delay exposure, created additional cost, or introduced new performance risks.
Module 7: Delay Analysis for Claims, Contracts, and Commercial Decisions
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Connecting schedule delay findings with extension-of-time assessments, contractual obligations, notice requirements, entitlement considerations, and commercial exposure.
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Preparing analytical evidence to support claims, responses, negotiations, adjudication, arbitration, mediation, or other dispute-resolution processes.
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Integrating schedule findings with change orders, variations, disruption, prolongation, acceleration, procurement events, and resource information.
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Maintaining clear separation between technical schedule conclusions, contractual interpretation, commercial assessment, and legal determinations.
Module 8: Forensic Evidence, Reporting, and Expert Communication
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Establishing structured evidence repositories containing schedules, updates, correspondence, records, drawings, reports, meeting minutes, and progress documentation.
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Developing delay analysis reports that explain methodology, assumptions, chronology, critical-path effects, causation, findings, and limitations.
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Creating visual timelines, schedule comparisons, critical-path diagrams, impacted activities, and executive summaries that make complex findings understandable.
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Defending analytical conclusions through transparent calculations, traceable evidence, sensitivity analysis, peer review, and clear explanation of methodological choices.
Module 9: Recovery Planning and Advanced Schedule Investigation
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Translating delay analysis findings into practical recovery strategies involving resequencing, acceleration, resource optimization, scope intervention, and dependency management.
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Conducting retrospective and prospective schedule analysis to support both historical assessment and forward-looking recovery decisions.
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Applying scenario analysis and sensitivity testing to evaluate alternative completion dates, mitigation measures, and emerging delay risks.
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Integrating schedule findings with project controls, risk management, cost forecasting, procurement, commercial management, and executive recovery governance.
Module 10: Digital Forensic Scheduling, Predictive Analytics, and AI
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Using automated schedule comparison, database analysis, digital evidence management, and integrated project controls platforms for large-scale delay investigations.
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Applying predictive analytics and machine learning to identify emerging delay patterns, schedule anomalies, critical-path changes, and potential completion risks.
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Evaluating AI-assisted chronology development, document analysis, schedule diagnostics, event classification, and delay-impact assessment.
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Addressing data quality, cybersecurity, evidence integrity, model explainability, methodological transparency, human validation, and responsible AI in forensic schedule analysis.
Training Approach
This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.
Tailor-Made Course
This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808
Training Venue
The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.
Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant
Certification
Participants will be issued with Upskill certificate upon completion of this course.
Airport Pickup and Accommodation
Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808
Terms of Payment:
Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.
