Construction Claims and Evidence Analytics

Introduction and Context

Construction projects combine long durations, multiple contracting parties, uncertain ground and weather conditions, changing designs, complex interfaces, and substantial financial commitments. These characteristics create a high probability of disagreement. A disagreement becomes a claim when a party asserts a contractual or legal entitlement to additional time, money, or other relief and the opposing party does not accept that entitlement.

Construction claims are not established merely by showing that a project experienced delay or cost growth. A persuasive claim normally requires proof of three connected elements:

1. Entitlement: the contract, statute, or legal principle gives the claimant a right to relief.
2. Causation: an identified event caused the delay, disruption, loss, variation, or defect-related consequence.
3. Quantum: the amount of time or money claimed is measured reliably and is not excessive, duplicated, or unsupported.

Evidence analytics is the disciplined process of collecting, organizing, testing, and interpreting project information to evaluate these elements. It combines contract interpretation, schedule analysis, document management, cost analysis, productivity measurement, and professional judgment.

The objective is not to manufacture a claim after the event. It is to reconstruct what happened from reliable contemporaneous evidence and to distinguish recoverable consequences from ordinary project risk, contractor inefficiency, or unrelated loss.

Learning Objectives

By the end of this chapter, students should be able to:

• distinguish entitlement, causation, and quantum;
• classify common delay, disruption, variation, loss-and-expense, and defect claims;
• identify the evidential value and limitations of project records;
• develop a structured claim chronology and responsibility matrix;
• apply basic schedule, productivity, and cost-analysis methods;
• evaluate concurrent delay, mitigation, notice, and contractual time bars;
• prepare a reasoned claim assessment and identify weaknesses in opposing evidence;
• explain the professional, ethical, technological, and governance responsibilities involved in claims work.

1. The Architecture of a Construction Claim

1.1 Entitlement

Entitlement asks: What right has been established? Possible sources include:

• express contract clauses;
• incorporated specifications, drawings, bills of quantities, and employer requirements;
• variation provisions;
• extension-of-time clauses;
• payment and valuation provisions;
• suspension, acceleration, and termination clauses;
• statutory payment or adjudication regimes;
• tort, restitution, or other applicable legal principles.

Entitlement is jurisdiction-specific. The governing law, contract wording, notice requirements, and dispute-resolution procedure must therefore be examined before applying a general claims method. A delay may justify additional time under one contract but not compensation under another. Similarly, a variation may be valued under contract rates, fair valuation, cost-plus provisions, or a negotiated mechanism.

1.2 Causation

Causation asks: Did the relevant event produce the claimed consequence? A claim should connect the event to the consequence through a defensible chain:

Event → affected activity or resource → project consequence → measured loss

For example:

Late structural design → delayed reinforcement fabrication → delayed slab cycle → extended site overheads

The causal chain must exclude alternative explanations such as contractor delay, defective work, resource shortages, weather within the contractor’s risk, or unrelated design changes.

1.3 Quantum

Quantum asks: What is the amount or duration of recoverable relief? It may include:

• extension of time;
• prolongation or time-related preliminaries;
• additional labor, plant, supervision, and accommodation costs;
• disruption or loss of productivity;
• valuation of varied work;
• financing or price-escalation consequences where contractually recoverable;
• rectification costs for defects;
• damages subject to contractual and legal rules.

Quantum should be calculated from project records rather than broad percentages. A cost must be linked to the event, incurred or properly forecast, contractually recoverable, and not duplicated elsewhere.

1.4 The claim proposition

A useful claim proposition is a concise statement containing the relevant event, contractual basis, causal effect, and remedy. For example:

The employer’s late issue of the revised façade details, contrary to the design-information obligation, delayed procurement and installation on the critical path by 18 working days and caused recoverable prolongation costs of $84,000, subject to proof of mitigation and contractual notice.

This proposition can be tested against documents. If a proposition cannot be expressed clearly, the claim analysis is probably incomplete.

2. Classification of Common Construction Claims

Categories can overlap. A variation may cause delay and disruption; a defect may require rework and cause prolongation. The analyst should identify each consequence separately and prevent double recovery.

3. Evidence: From Project Records to Reliable Analysis

3.1 The evidential hierarchy

Evidence is strongest when it is contemporaneous, attributable, complete, consistent, and created for ordinary project administration rather than litigation. Typical sources include:

• executed contract and amendments;
• drawings, specifications, requests for information, and transmittals;
• instructions, site correspondence, and notices;
• approved baseline programmes and periodic updates;
• progress photographs, daily reports, and inspection records;
• labor allocation sheets, timesheets, plant logs, delivery tickets, and invoices;
• payment applications, valuations, and cost reports;
• meeting minutes and risk registers;
• commissioning, testing, snagging, and defect records;
• electronic metadata, document-control logs, and approved workflow histories.

No document is automatically reliable. A daily report may be contemporaneous but incomplete; a retrospective expert report may be analytical but dependent on assumptions. Evidence must be tested for authenticity, relevance, internal consistency, and independence.

3.2 The evidence matrix

An evidence matrix links each claim issue to the proof required.

3.3 Chronology and coding

A claim chronology should record the date, event, source, responsible party, affected work, contractual significance, and consequence. Digital claims systems often code documents by event, location, work package, cost code, and issue. Coding improves retrieval but does not replace interpretation.

A disciplined chronology also exposes contradictions. For instance, a contractor may allege that access was unavailable on 10 March, while delivery records show that its equipment entered the area on that date. The contradiction does not automatically defeat the claim, but it requires explanation.

3.4 Preserve the original record

Electronic evidence should be preserved in its original form, with controlled copies, access logs, version histories, and documented transformations. Spreadsheet calculations should identify source files, formulas, assumptions, and changes. Altering an original record or presenting an extracted email without surrounding context can damage credibility and raise professional-conduct concerns.

4. Delay Analysis

4.1 Time, delay, and criticality

A delay is not simply any late activity. An activity may finish late without delaying contractual completion if available float absorbs the slippage. Conversely, a short interruption to a critical activity may delay completion immediately.

The total float of an activity is commonly expressed as:

where TF is total float, LS is late start, ES is early start, LF is late finish, and EF is early finish. The units are normally working days. This relationship assumes a logically complete network with consistent calendars and activity relationships. Float values depend on the accepted programme and may change when actual progress and logic are updated.

The critical path is the path of activities controlling the relevant completion milestone under the selected programme model. Criticality must be assessed at the relevant time, not only by inspecting the final as-built programme.

4.2 Common delay-analysis methods

#### As-planned versus as-built

The analyst compares the original plan with actual completion. It is simple and useful for an initial overview, but it is weak for complex claims because it may ignore changing logic, revised methods, mitigation, and multiple causes.

#### Impacted as-planned

A delay event is inserted into the baseline programme to estimate its effect. This is prospective in character and useful where the baseline was reliable and the event was assessed before its full effect occurred. It can be misleading if the baseline was unrealistic or if actual progress had already diverged materially.

#### Time impact analysis

A modeled delay event is inserted into the latest accepted update before the event, and the resulting completion movement is evaluated. Repeated event-by-event analysis can preserve the project’s evolving status, but results depend heavily on update quality, logic, and the correct identification of the event window.

#### Windows analysis

The project is divided into periods, and the changing controlling path and causes of movement are evaluated in each window. This method reflects evolving conditions but requires reliable periodic updates and careful interpretation.

#### As-planned versus updated or collapsed as-built

The analyst removes selected delays from the as-built programme to estimate what completion might have been without them. This retrospective approach can be informative but is sensitive to assumptions about logic, mitigation, and the treatment of concurrent events.

No method is universally superior. The contract, jurisdiction, dispute forum, available records, and quality of programme data determine the appropriate approach.

4.3 Concurrent delay

Concurrent delay generally refers to two independent delay events operating during substantially the same period, with each capable of delaying completion. Legal treatment varies considerably. Some regimes distinguish a contractor-risk delay from an employer-risk delay, while others examine dominant cause, contractual allocation, or proof of actual effect.

The analyst should ask:

1. Did both events occur during the same relevant period?
2. Was each event independently capable of delaying the relevant completion milestone?
3. Did either event merely affect float or a non-controlling activity?
4. Were the events truly independent, or did one cause the other?
5. What does the contract and governing law provide?

Concurrency should never be asserted merely because two events appear on the same calendar dates.

5. Disruption and Productivity Analysis

Delay concerns time; disruption concerns the efficiency with which work is performed. A project can finish on time yet incur disruption costs, and a delayed project can also experience disruption.

5.1 Productivity measures

A basic labor productivity rate can be expressed as:

where P is productivity in units per labor-hour, Q is completed quantity, and H is labor-hours consumed. Alternatively, labor consumption can be stated as:

where R is labor-hours per unit. The two measures are reciprocals when the same quantity and labor input are used. Units must be stated; for example, 0.20 m³ per labor-hour is equivalent to 5 labor-hours per m³.

Productivity comparisons require comparable work, crews, materials, methods, quality requirements, and measurement rules. A lower productivity rate does not by itself prove compensable disruption.

5.2 Measured mile

The measured-mile method compares productivity in a reasonably comparable unaffected period or area with productivity in the affected period or area. A simplified calculation is:

where ΔH is estimated additional labor-hours, Q_a is affected quantity, R_a is affected labor-hours per unit, and R_u is unaffected labor-hours per unit. The method assumes that the unaffected work is genuinely comparable and that the difference is not explained by changed scope, learning, weather, crew composition, or other causes.

Illustrative example. Unaffected installation required 4 labor-hours per unit. Affected installation of 1,200 units required 6 labor-hours per unit. The estimated additional hours are:

ΔH = 1,200 × (6 − 4) = 2,400 labor-hours.

If the agreed labor cost is $32 per hour, the direct labor effect is 2,400 × 32 = $76,800, before considering supervision, overhead, productivity interactions, or contractual limitations. This is not automatically the recoverable claim; entitlement, causation, mitigation, and allowable cost must still be proved.

5.3 Other productivity approaches

Earned-value comparisons, baseline labor norms, industry productivity references, and system-dynamics models may assist analysis. Global productivity factors, such as applying a percentage loss to all labor, are generally less persuasive because they can conceal unaffected work and duplicate specific disruption calculations.

6. Quantum and Cost Analytics

6.1 Cost classification

Costs should be separated into:

• direct costs, attributable to a specific work item or event;
• site overheads, such as site management, temporary facilities, security, and utilities;
• head-office overheads, allocated according to contract or accepted accounting method;
• subcontractor and supplier costs;
• plant and equipment costs, distinguishing ownership, hire, idle, and operating components;
• financing, escalation, and tax effects, where legally recoverable.

The relevant amount is generally the incremental cost caused by the compensable event, not the entire project cost.

6.2 Prolongation costs

A simple time-related cost model is:

where C_p is prolongation cost, r_d is the substantiated daily time-related cost, and D is the compensable number of days. The daily rate must be derived from costs actually applicable to the extended period. It should not include costs already recovered through other valuation items or costs that would have been incurred regardless of the delay.

Example. A contractor proves a daily site overhead of $4,500. The delay analysis establishes 18 compensable days. Then:

C_p = 4,500 × 18 = $81,000.

If $9,000 of that amount relates to a facility already included in a separate variation valuation, the non-duplicated prolongation amount is $72,000.

6.3 Variations

A variation may change quantity, quality, dimensions, sequence, location, method, or timing. The valuation sequence commonly is:

1. determine whether the instruction is contractually authorized;
2. identify the changed scope and its boundaries;
3. apply contract rates where they remain appropriate;
4. adjust rates where quantity, conditions, or resource assumptions materially change;
5. use analogous rates or fair valuation where necessary;
6. assess time, disruption, and consequential cost separately;
7. maintain records of measurement and agreement.

A variation valuation should not silently include delay or disruption costs unless the contract expressly combines them.

6.4 Loss and expense

Loss-and-expense analysis requires a link between the employer-risk event and actual additional expenditure. Typical tests include:

• Was the cost incurred because of the event?
• Is it reasonable and supported by records?
• Was it foreseeable or contractually recoverable where required?
• Was notice given on time?
• Was the cost mitigated?
• Has it been claimed elsewhere?

A contractor’s total project loss is not necessarily the employer’s liability. The analysis must isolate the loss attributable to the compensable event.

7. Defects and Rework Claims

A defect is a failure to comply with a contractual requirement, approved design, statutory standard, or reasonable performance obligation. Defect analysis involves more than identifying imperfect work. It must determine:

• the applicable requirement;
• the existence and extent of nonconformance;
• responsibility;
• the necessary remedial action;
• whether the remedy is proportionate;
• delay and cost consequences;
• any contribution by inspection, design, access, or other parties.

Evidence includes specifications, approved samples, test results, nonconformance reports, photographs, laboratory reports, inspection requests, and records of rectification. Experts should distinguish defect diagnosis from legal conclusions. An engineer may explain why concrete failed to meet strength requirements; the legal decision-maker determines contractual responsibility and remedy.

8. A Structured Claim-Evaluation Framework

A practical evaluation can proceed through eight stages:

Stage 1: Define the issue

State the event, requested remedy, relevant dates, and disputed points.

Stage 2: Establish the contractual framework

Identify notice, records, valuation, extension, mitigation, dispute, and time-bar provisions.

Stage 3: Build the chronology

Record event dates, communications, affected work, responses, and consequences.

Stage 4: Test entitlement

Confirm that the event falls within a contractual or legal entitlement and that procedural conditions were met.

Stage 5: Analyze causation

Use schedules, resource records, design information, and alternative-cause analysis to connect event and consequence.

Stage 6: Measure time and money

Apply a suitable delay method, productivity method, or cost model. State assumptions and exclude duplication.

Stage 7: Test mitigation and reasonableness

Examine resequencing, alternative procurement, additional shifts, resource relocation, and other reasonable responses.

Stage 8: Report conclusions and uncertainty

Separate established facts, assumptions, expert opinions, and unresolved issues. Use confidence levels where appropriate, but do not disguise weak evidence with numerical precision.

A good claim report often includes an executive issue table, contractual analysis, chronology, schedule analysis, quantum schedules, evidence index, assumptions register, and conclusion on each head of claim.

9. Illustrative Case Study: Riverside Hospital Extension

The following is a fictional illustrative case.

Background

A contractor was engaged to construct a hospital extension under a design-and-build contract. The contractual completion period was 78 weeks. The project used monthly programme updates, electronic document control, and measured payment. The contractor claimed 24 weeks of extension and $1.42 million in additional cost.

Problem

The employer issued revised fire-engineering requirements after construction had commenced. At the same time, the contractor experienced labor shortages and delayed procurement of specialist equipment. The contractor argued that the revised requirements delayed the critical path, disrupted several trades, and caused prolongation. The employer accepted that the fire requirements changed but argued that the contractor’s procurement and labor problems were independent causes.

Analysis

The analyst first identified the contractual design-change clause and the notice requirements. The contractor had submitted a notice within the required period, but its initial notice described the issue generally and did not quantify the likely effect. Subsequent updates supplied particulars.

The chronology showed that the revised requirements were issued in week 41. The accepted programme update immediately before the event showed that fire-service installation controlled the commissioning sequence. A time-impact analysis inserted the revised design activities into that update and indicated a 13-week movement to completion. However, later records showed that specialist equipment procurement was already 6 weeks late before the revised requirements were issued.

The analyst therefore separated the effects. The revised design caused 9 additional weeks after allowing for the pre-existing procurement delay. Labor records showed that mechanical installation productivity in the affected zone was 5.8 labor-hours per unit, compared with 4.1 labor-hours per unit in a comparable unaffected zone. Quantity reconciliation confirmed that 2,000 units were comparable. The estimated additional labor-hours were:

2,000 × (5.8 − 4.1) = 3,400 labor-hours.

At a verified labor cost of $35 per hour, the direct labor effect was $119,000. The analyst did not apply the measured-mile result to areas where scope and crew composition differed.

Site records established a daily time-related cost of $7,200, but $1,100 per day related to a temporary office that would have remained in use for other work. The recoverable daily amount was therefore $6,100. For 9 compensable weeks, using a five-day working week, the calculated prolongation was:

6,100 × 45 = $274,500.

The contractor also claimed all additional supervision costs. Payroll records showed that some supervisors were already budgeted for the original completion period. Only the incremental extended-period cost was included.

Approach and solution

The claim was divided into:

• entitlement to a variation for revised fire requirements;
• extension of time for the net critical-path effect;
• disruption measured through comparable productivity data;
• prolongation based on incremental daily costs;
• rejected amounts relating to pre-existing procurement delay and unsupported global inefficiency.

The parties agreed the variation value separately from time-related costs. The final assessment recognized 9 weeks rather than 24 weeks and accepted $393,500 for measured labor disruption and prolongation, subject to agreed overhead and tax treatment. The original $1.42 million claim was reduced because it included unrelated procurement delay, duplicated supervision, and unsupported percentage additions.

Outcome and learning points

The case demonstrates that an accepted change in scope does not establish every claimed consequence. Critical-path analysis must account for pre-existing delay. Productivity evidence should be limited to comparable work. Cost schedules must isolate incremental expenditure and avoid duplication. Finally, a precise chronology and evidence matrix can convert a broad dispute into separable issues that are capable of agreement.

10. Technology, AI, and Evidence Governance

Claims teams increasingly use document-management platforms, optical character recognition, database searches, schedule viewers, cost dashboards, and natural-language tools. These technologies can identify dates, duplicate documents, references to delay events, and inconsistent descriptions. Machine learning may assist classification and anomaly detection.

However, technology does not decide entitlement or causation reliably without expert control. Risks include:

• misreading scanned or handwritten records;
• treating repeated statements as independent confirmation;
• losing document context;
• importing incorrect schedule logic;
• producing unexplained statistical correlations;
• exposing confidential or privileged information;
• allowing generated text to conceal unsupported assumptions.

AI-assisted analysis should preserve source links, record prompts and transformations where relevant, use human verification, and clearly distinguish extracted facts from generated summaries. Personal data, commercially sensitive information, and legally privileged communications require appropriate access controls. An analyst remains responsible for professional judgment even when software performs calculations or document review.

11. Limitations, Ethics, and Professional Practice

Claims analysis is often conducted with incomplete records. Programmes may be revised retrospectively, cost codes may be inconsistent, and witnesses may remember events differently. A responsible analyst should not overstate certainty. Limitations should be disclosed, alternative explanations considered, and unfavorable evidence addressed rather than omitted.

Ethical practice requires:

• independence from the party’s preferred outcome;
• accurate citation of records;
• no alteration or selective quotation of evidence;
• separation of fact, assumption, opinion, and legal conclusion;
• protection of confidential information;
• competent use of schedules, accounting data, and statistical methods;
• prompt correction of material errors.

A claim professional is not an advocate for an unsupported number. The professional role is to provide a defensible analysis that assists negotiation, adjudication, arbitration, litigation, or project governance.

12. Best-Practice Checklist

Before submitting or assessing a claim, confirm that:

• the governing contract and amendments have been reviewed;
• notice and time-bar requirements have been checked;
• each event has a dated and sourced chronology;
• responsibility and alternative causes have been analyzed;
• the programme baseline and updates are preserved;
• criticality is assessed for the relevant period;
• concurrency is tested rather than assumed;
• productivity comparisons use comparable work;
• costs are incremental, supported, and free from duplication;
• mitigation and reasonable alternatives are addressed;
• variations, delay, disruption, and defects are separated where necessary;
• assumptions, uncertainties, and limitations are disclosed;
• electronic evidence is preserved with appropriate governance;
• conclusions are proportional to the strength of the evidence.

Chapter Summary

Construction claims require a connected analysis of entitlement, causation, and quantum. Entitlement depends on the contract and applicable law; causation requires a defensible link between an event and its consequence; quantum requires reliable measurement of recoverable time and money. Delay analysis must distinguish activity lateness from critical-path delay and must address evolving programme logic and concurrency. Disruption analysis focuses on lost productivity and should use comparable evidence such as a measured mile. Quantum analysis isolates incremental costs, tests mitigation, and prevents duplication. Variations, defects, loss and expense, and prolongation should be analyzed as distinct but potentially interacting heads of claim. Contemporaneous records, controlled data, transparent assumptions, and ethical professional judgment are the foundations of credible evidence analytics. Technology can improve retrieval and consistency, but it cannot replace expert interpretation or responsibility.

Key Terms

Entitlement: A contractual or legal right to a remedy.

Causation: The demonstrated connection between an event and a claimed consequence.

Quantum: The amount of money or time claimed or assessed.

Claim: An asserted entitlement to contractual or legal relief.

Delay: Slippage affecting an activity, milestone, or completion date.

Disruption: Loss of productivity or efficiency caused by interference or changed conditions.

Critical path: The sequence of activities controlling a selected completion milestone.

Total float: Time by which an activity may be delayed without delaying the relevant project completion date.

Concurrency: Overlapping independent delay events capable of affecting completion.

Variation: An authorized change to scope, quantity, quality, sequence, method, or timing.

Prolongation: Additional time-related cost caused by compensable project extension.

Loss and expense: Additional recoverable expenditure resulting from a relevant contractual event.

Measured mile: A productivity comparison between affected and comparable unaffected work.

Mitigation: Reasonable action taken to avoid or reduce delay or loss.

Contemporaneous record: A document created during or near the time of the relevant event.

Evidence matrix: A structured link between claim issues, questions, documents, and tests.

Time bar: A contractual period after which a notice or claim may be restricted or excluded.

Defect: Failure to comply with a contractual, design, statutory, or performance requirement.

Disruption quantum: The measured financial effect of reduced productivity or inefficient performance.

Review Questions

Short Answer Questions

1. What are the three principal elements that must generally be established in a construction claim?
2. Why does activity lateness not necessarily establish project delay?
3. What is the purpose of an evidence matrix?
4. State the basic productivity formula in units per labor-hour and define its variables.
5. Why must prolongation costs be separated from variation valuation?

Long Answer Questions

1. Explain how a claim analyst should investigate a late-design-information claim from entitlement through quantum.
2. Compare impacted as-planned, time-impact, and windows delay-analysis methods, including their principal limitations.
3. Explain how the measured-mile method can be used to analyze disruption and identify the assumptions required for a reliable comparison.
4. Discuss the treatment of concurrency and mitigation in construction claims, noting why contract and jurisdictional context matters.
5. Describe an ethically robust workflow for using digital tools and AI in construction evidence analysis.

Analytical / Application Questions

1. A contractor claims 12 weeks of delay from a late instruction. The programme shows that the affected activity had 15 working days of float, while a separate contractor procurement delay had already moved the completion milestone by 20 working days. What further evidence is required before assessing the claim, and how would you separate the effects?
2. Unaffected work used 3.5 labor-hours per unit, while comparable affected work used 5.0 labor-hours per unit for 800 units. Labor cost is $30 per hour. Calculate the estimated additional labor-hours and direct labor cost, then identify at least three issues that must be tested before treating the result as recoverable disruption.
3. A contractor claims $500,000 in prolongation based on a daily rate of $10,000 for 50 days. Review of the records shows that $1,500 per day was already included in a variation, $1,000 per day was not incurred during the alleged extension, and only 35 days are shown to be compensable. Calculate the non-duplicated, supported prolongation amount and explain the evidential reasoning.

Multiple Choice Questions with Answers

Question 1

Which combination best describes the basic structure of a construction claim?

A. Design, procurement, and commissioning

B. Entitlement, causation, and quantum

C. Planning, tendering, and payment

D. Notice, valuation, and completion

Correct Answer: B. Entitlement, causation, and quantum

Question 2

An activity finishes late but the contractual completion date does not move. Which concept most directly explains this result?

A. The activity had available float

B. The activity was defective

C. The activity was a variation

D. The activity lacked a cost code

Correct Answer: A. The activity had available float

Question 3

In the productivity formula P = Q ÷ H, what does H represent?

A. The completed quantity

B. The productivity rate

C. The labor-hours consumed

D. The contract duration

Correct Answer: C. The labor-hours consumed

Question 4

Using the measured-mile approach, unaffected work requires 4 labor-hours per unit and affected work requires 6 labor-hours per unit for 1,000 units. What is the estimated additional labor input?

A. 500 labor-hours

B. 1,000 labor-hours

C. 2,000 labor-hours

D. 6,000 labor-hours

Correct Answer: C. 2,000 labor-hours

Question 5

Which evidence is generally most useful for establishing what occurred at the time of an event?

A. A contemporaneous site diary supported by related records

B. An unsupported retrospective estimate

C. A general industry percentage

D. A final claim summary with no source references

Correct Answer: A. A contemporaneous site diary supported by related records

Question 6

What is the principal purpose of a time-impact analysis?

A. To price all variations using tender rates

B. To insert a modeled delay event into an appropriate programme update and assess its effect

C. To calculate tax on prolongation costs

D. To replace all contemporaneous records

Correct Answer: B. To insert a modeled delay event into an appropriate programme update and assess its effect

Question 7

Which item should normally be excluded from an incremental prolongation calculation if it was already recovered in a separate valuation?

A. A substantiated additional site-supervision cost

B. A time-related cost incurred during the compensable period

C. A duplicated temporary-facility cost

D. A verified cost of extended security

Correct Answer: C. A duplicated temporary-facility cost

Question 8

Why is a global percentage loss of productivity often less persuasive than a measured-mile analysis?

A. It always produces a lower claim

B. It can conceal unaffected work and alternative causes

C. It cannot use labor records

D. It is prohibited in every jurisdiction

Correct Answer: B. It can conceal unaffected work and alternative causes

Question 9

Which question is central to concurrency analysis?

A. Were two events recorded in the same spreadsheet?

B. Did each event independently have the capacity to delay the relevant completion milestone?

C. Did the contractor submit any invoice?

D. Were the events caused by different subcontractors?

Correct Answer: B. Did each event independently have the capacity to delay the relevant completion milestone?

Question 10

What is an important governance requirement when using AI-assisted evidence review?

A. Allow the tool to make undisclosed legal conclusions

B. Remove source links to simplify the report

C. Preserve source traceability and verify outputs through human review

D. Treat repeated generated summaries as independent evidence

Correct Answer: C. Preserve source traceability and verify outputs through human review