Construction Project Management

Chapter 7
Procurement, Project Delivery and Contract Strategy

Post Graduate Diploma in Civil Engineering
Construction Project Management   •   Post Graduate

Procurement, Project Delivery and Contract Strategy

Introduction and Context

Construction procurement is the process through which a client obtains design, construction, specialist services, materials and associated project management services. It is not merely an administrative procedure for inviting tenders. Procurement determines who carries design responsibility, how risks are allocated, how decisions are made, how price and time are controlled, and how the parties will respond when conditions differ from expectations.

Project delivery is the organisational and contractual arrangement used to plan, design and construct a facility. Contract strategy is the deliberate selection of contract types, pricing mechanisms, risk-allocation provisions, incentives, procedures and governance arrangements that support the project’s objectives.

A suitable strategy must reflect the project’s technical complexity, uncertainty, urgency, funding arrangements, market capacity, client capability and desired level of control. No procurement route is universally superior. A route that is effective for a repetitive industrial facility may be unsuitable for a hospital, urban rail project or privately financed road.

At postgraduate level, procurement should be viewed as a strategic decision under uncertainty. The central question is not simply, “Which contract is cheapest?” It is: “Which delivery and contracting arrangement gives the project the best prospect of achieving value, affordability, quality, safety and public legitimacy over its life cycle?”

Learning Objectives

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

1. Explain the relationship between procurement, project delivery and contract strategy.

2. Compare design–bid–build, design–build, EPC, management contracting, PPP and collaborative delivery models.

3. Select a procurement route using project characteristics, risk analysis and client capability.

4. Develop the principal components of tender and contract documentation.

5. Design transparent bid evaluation methods using technical, commercial and quality criteria.

6. Explain contract administration practices, including change, payment, claims, records and dispute management.

7. Evaluate ethical, governance, digital and sustainability issues in procurement decisions.

1. Fundamental Concepts and Terminology

1.1 Procurement, delivery model and contract form

These terms are related but should not be treated as synonyms.

Procurement strategy is the client’s overall approach to obtaining project outcomes. It includes market engagement, packaging, tendering, selection criteria, risk allocation and governance.

Project delivery model defines the relationships among the client, designers, contractors, operators and financiers. It determines how design and construction responsibilities are organised.

Contract strategy concerns the legal and commercial mechanisms used within the delivery model. It includes pricing basis, payment method, incentives, extensions of time, compensation events, warranties, insurance, security and dispute procedures.

Contract administration is the controlled management of contractual obligations after award. It includes notices, instructions, certification, payment, records, tests, approvals, variations, claims and completion procedures.

1.2 Procurement objectives

Typical objectives include:

  • cost certainty and affordability;
  • early or reliable completion;
  • fitness for purpose and technical performance;
  • safety and environmental performance;
  • innovation and whole-life value;
  • fair competition and market access;
  • transparent and defensible decision-making; and
  • appropriate allocation of risk.

These objectives may conflict. Maximum early price certainty can reduce flexibility. Rapid procurement can increase design incompleteness. Transferring a risk to a contractor does not eliminate it; it may increase the tender price, create disputes or result in poor performance if the contractor cannot control the risk.

1.3 Risk allocation principle

A sound principle is that a risk should be allocated to the party best able to:

1. understand its probability and consequences;

2. control or reduce its occurrence;

3. absorb its financial effect; and

4. obtain insurance or other protection at efficient cost.

Risk allocation should be explicit. Ambiguous documents often produce competing interpretations, inflated contingencies and disputes. The risk register, responsibility matrix, contract conditions and pricing documents should tell the same story.

2. Principal Project Delivery Models

2.1 Design–Bid–Build

In design–bid–build (DBB), the client appoints a designer to develop the design and then separately appoints a contractor, commonly through competitive tender. The designer and contractor generally have separate contracts with the client.

The traditional sequence is design, tender and construction, although overlap is possible. The client retains substantial design coordination responsibility and usually bears the risk of design completeness and many design errors.

Advantages include:

  • clear separation of design and construction;
  • strong client control over design and materials;
  • competitive price competition based on a relatively complete design; and
  • established professional and legal procedures.

Limitations include:

  • relatively late contractor involvement;
  • limited constructability input during design;
  • potential for adversarial interpretation of documents;
  • longer overall duration when activities are sequential; and
  • client exposure to design coordination and change risk.

DBB is often suitable where the scope is well defined, design standards are established, the client requires direct design control and the market contains capable independent designers and contractors.

2.2 Design–Build

Under design–build (DB), a single entity or integrated team is responsible for both design and construction. The client may issue performance requirements, an employer’s brief or a concept design, after which the design–builder develops the technical solution.

The model creates a single point of responsibility for design and construction and can permit design and construction activities to overlap. It may improve constructability and reduce interface disputes. However, the client must define performance requirements carefully and must retain sufficient technical expertise to evaluate proposed solutions.

A common danger is treating a poorly defined employer’s requirement as if it were a complete design. Ambiguity may lead to claims about whether an item is included in the contractor’s scope. DB can also reduce the client’s direct control over detailed design and may make post-award changes expensive.

2.3 Engineering, Procurement and Construction

An EPC contract is a form of integrated delivery in which the contractor undertakes engineering, procurement and construction, commonly on a fixed-price and fixed-date basis with performance obligations. EPC is prevalent in energy, process, utilities and industrial projects.

The contractor may be required to deliver a completed and tested facility capable of meeting specified output, efficiency, availability or quality criteria. The contract often includes performance tests, delay damages, performance damages, caps on liability and extensive security provisions.

EPC is most effective when:

  • the output and technical requirements can be specified clearly;
  • the contractor has strong engineering and supply-chain capability;
  • interfaces can be placed under one entity; and
  • the contractor can price the allocated risks.

EPC is less suitable where the scope is immature, ground conditions are highly uncertain, stakeholder requirements are evolving or the client requires continuous design changes. A nominal transfer of risk is ineffective if the contractor lacks information or control.

2.4 Management contracting

In management contracting, the client appoints a management contractor to plan, coordinate and manage construction packages, while specialist trade contractors are appointed to perform the work. The management contractor may have little or no direct physical construction workforce.

This approach permits early commencement before all design is complete and can be effective for complex projects requiring extensive coordination. It requires a sophisticated client, a strong cost-control system and timely design information. The final cost is less certain at the outset because packages are procured progressively.

Management contracting differs from construction management. In construction management, the construction manager commonly acts as the client’s agent, while the client contracts directly with trade contractors. In management contracting, the management contractor typically holds contracts with the works contractors and carries defined management obligations.

2.5 Public–private partnership

A public–private partnership (PPP) is a long-term arrangement in which a private party may design, finance, build, operate and maintain public infrastructure, with remuneration linked to availability, usage or public payments. Common structures include design–build–finance–maintain–operate arrangements and concessions.

PPP decisions must be based on public value rather than the assumption that private finance is automatically cheaper. Analysis should consider whole-life cost, risk-adjusted public affordability, service quality, financing costs, transaction costs, residual asset condition and termination consequences.

PPP requires:

  • a stable and measurable service specification;
  • credible long-term public funding;
  • an effective regulatory and monitoring framework;
  • appropriate allocation of demand, construction, operating and political risks; and
  • robust arrangements for refinancing, step-in, handback and termination.

PPP is unsuitable where the service requirement is likely to change substantially or where the public authority cannot monitor performance effectively.

2.6 Collaborative and integrated delivery

Collaborative delivery models seek to align participants around shared objectives, early information exchange, joint problem-solving and transparent commercial behaviour. Examples include alliancing, partnering, integrated project delivery and target-cost contracts.

An alliance may establish a multi-party governance structure in which key participants share risks and rewards. A target-cost arrangement establishes a target price and a pain/gain mechanism according to which cost savings or overruns are shared under an agreed formula.

Collaborative models can improve performance where uncertainty is high and integration is valuable. They do not depend on goodwill alone. They require clear governance, reliable cost information, behavioural commitments, open-book accounting, effective decision rights and mechanisms for dealing with poor performance.

3. Selecting a Procurement Strategy

3.1 Strategic decision criteria

A procurement assessment should consider at least six dimensions:

Scope definition. Is the output fully defined, or will requirements evolve?

Design maturity. Is design complete enough for competitive pricing, or is early contractor input necessary?

Project complexity and interfaces. Are there many systems, packages, utilities, stakeholders or operational interfaces?

Time requirements. Is early completion more important than initial price certainty?

Risk profile. Are ground, regulatory, technology, supply-chain or demand risks significant?

Client capability. Can the client manage multiple contracts, evaluate technical solutions and administer change?

Other factors include market capacity, funding constraints, sustainability objectives, innovation needs, public accountability and the consequences of failure.

3.2 A structured selection process

A defensible process may involve the following stages:

1. Define project outcomes and constraints.

2. Prepare a risk and interface map.

3. Assess design maturity and information quality.

4. Evaluate client and market capability.

5. Develop a shortlist of feasible delivery models.

6. Compare models using weighted criteria and sensitivity testing.

7. Test the preferred approach through market sounding.

8. Obtain governance approval and document the rationale.

A weighted scoring model can support comparison. If criterion weights are represented by \(w_i\), with the weights summing to 1, and a model’s score for criterion \(i\) is \(s_i\), the weighted score is:

\[

S = \sum_{i=1}^{n} w_i s_i

\]

The score is a decision aid, not a substitute for professional judgement. Scores should use a defined scale, such as 0 to 5, and the analysis should test whether a small change in weights changes the preferred model. Criteria should not be double-counted; for example, “low risk” and “high cost certainty” may represent overlapping characteristics.

3.3 Pricing and payment strategies

Common pricing approaches include:

  • Lump sum: a fixed price for defined work, subject to stated adjustments. It supports price comparison but depends heavily on scope completeness.
  • Unit-rate or remeasurement: payment is based on measured quantities multiplied by contract rates. It is useful where quantities are uncertain but the work types are understood.
  • Cost reimbursable: allowable costs are reimbursed, often with a fee. It provides flexibility but requires strong audit and cost-control arrangements.
  • Target cost: an agreed target is compared with actual allowable cost, with savings or overruns shared according to a formula.
  • Guaranteed maximum price: the contractor’s recoverable amount is capped subject to defined exceptions; its effectiveness depends on scope clarity and treatment of changes.

A price mechanism should be matched to the information available. Fixed pricing does not create certainty if the contract contains broad exclusions, ambiguous requirements or extensive compensation events.

4. Tender and Contract Documentation

Tender documentation must enable bidders to understand the required outcome, price the work on a comparable basis and identify the legal and commercial consequences of their offer.

A comprehensive package may include:

1. invitation to tender and procurement timetable;

2. instructions to tenderers;

3. form of tender and declarations;

4. conditions of contract and amendments;

5. employer’s requirements or scope of work;

6. drawings, specifications and performance criteria;

7. pricing schedules, bills of quantities or activity schedules;

8. programme requirements and milestones;

9. site information and geotechnical data;

10. health, safety, environmental and social requirements;

11. quality management and testing requirements;

12. forms of bond, guarantee and insurance;

13. information-management and digital-delivery requirements; and

14. schedules for departures, assumptions, subcontractors and proposed alternatives.

4.1 Information quality and hierarchy

Documents should state their order of precedence. Conflicts among drawings, specifications, schedules and employer requirements are a major source of claims. The contract should also define how errors, omissions, discrepancies and requests for information are handled.

The employer’s requirements should distinguish between mandatory outcomes, performance standards, accepted assumptions and information provided for information only. Site data should identify its status and the extent to which the contractor may rely on it.

4.2 Scope and work breakdown

The scope should be organised using a work breakdown structure and interface matrix. Each deliverable should have an identified owner, acceptance criterion, required date and verification method. For complex projects, responsibility assignment matrices such as RACI can clarify who is responsible, accountable, consulted and informed.

4.3 Prequalification and market engagement

Prequalification may assess financial capacity, relevant experience, technical resources, safety performance, litigation history, ethical compliance and supply-chain capability. Requirements should be proportionate. Excessive thresholds can reduce competition and exclude capable specialist firms.

Early market engagement can test packaging, construction methodology, availability of materials, realistic programme durations and risk appetite. It must be conducted transparently so that no bidder receives an unfair advantage.

5. Bid Evaluation and Award

5.1 Evaluation principles

Evaluation must be based on disclosed criteria applied consistently. The evaluation team should maintain confidentiality, record reasons for scores and manage conflicts of interest. Clarifications should not allow a bidder to materially improve a non-compliant offer unless the procurement rules expressly permit it.

A typical evaluation structure may include:

  • mandatory compliance and eligibility;
  • technical solution and methodology;
  • programme and resources;
  • health, safety, quality and environmental performance;
  • relevant experience and key personnel;
  • commercial offer and price realism;
  • risk understanding and proposed departures; and
  • social value or sustainability outcomes.

5.2 Price and quality evaluation

Where quality and price are combined, the method should be defined before bids are opened. A simple quality–price model may calculate a total score as:

\[

T = w_q Q + w_p P

\]

where \(Q\) is the normalised quality score, \(P\) is the normalised price score, and \(w_q + w_p = 1\). The normalisation method must be disclosed and used consistently. A common price normalisation method is the lowest compliant bid divided by the bidder’s price, multiplied by the maximum price score. This method rewards low price but can exaggerate small price differences; therefore, it should be adopted only when appropriate to the procurement rules.

The lowest bid should not automatically be selected. An abnormally low tender may reflect an error, an omitted scope item, unrealistic productivity, unsustainable labour assumptions or an intention to recover money through claims. The client should seek evidence and document its conclusion before award.

5.3 Life-cycle and value-based evaluation

For assets with substantial operating costs, evaluation should consider whole-life value. Relevant factors include energy, maintenance, reliability, replacement, carbon, resilience, disposal and user disruption. Such factors require measurable criteria and credible assumptions; otherwise they can become subjective or vulnerable to challenge.

6. Contract Administration

Contract administration converts the written strategy into controlled project behaviour.

6.1 Governance and authority

At commencement, the parties should establish an authority matrix defining who may issue instructions, certify payments, approve changes, accept work and settle claims. Communication protocols should identify formal notices, document-control requirements, response periods and escalation routes.

6.2 Change management

Change may arise from client instructions, design development, unforeseen conditions, regulatory requirements, errors, omissions or contractor proposals. A disciplined process should:

1. identify the event;

2. determine whether it is contractually compensable;

3. issue the required notice;

4. assess cost and time effects;

5. obtain appropriate approval;

6. implement the change; and

7. update the programme, risk register and cost forecast.

A change register should record status, responsibility, estimated value, approved value and time effect. Informal instructions are dangerous because work may proceed without agreement on entitlement or valuation.

6.3 Payment, measurement and cost control

Payment procedures should define valuation dates, supporting records, certification, retention, withholding, payment deadlines and final account requirements. For remeasurement contracts, measurement rules and records are fundamental. For cost-reimbursable contracts, allowable-cost definitions, audit rights and treatment of overheads must be precise.

Cost control should distinguish the original contract sum, approved changes, pending changes, forecast cost to complete, risk allowances and projected final cost. A favourable current cash position does not necessarily mean that the final cost is controlled.

6.4 Programme and extension of time

The contract should define the baseline programme, update frequency, critical activities, float treatment, milestones and delay-notification procedures. An extension-of-time assessment should examine causation, contractual entitlement, actual or likely delay to completion and the effect of concurrent delay where relevant to the governing contract and law.

6.5 Claims and disputes

Claims are managed best through early notice, contemporaneous records and prompt assessment. Important records include instructions, design submissions, site diaries, labour and plant returns, delivery tickets, photographs, test results, meeting minutes and programme updates.

A stepped dispute process may include project-level negotiation, senior executive review, dispute avoidance or adjudication, mediation, arbitration and litigation. The appropriate sequence depends on the contract and jurisdiction. Dispute avoidance is generally less costly than formal determination after relationships have deteriorated.

7. Illustrative Case: Urban Water Treatment Expansion

This is a fictional illustrative case.

Background

A municipal authority must expand a water treatment plant by 40 percent. The plant must remain operational during construction. The process technology is proven, but the existing underground services are incompletely documented. Regulatory approval is required, and demand forecasts may change within five years.

Problem

The authority initially proposes DBB with a lump-sum price. The design consultant warns that shutdown interfaces and undocumented services create significant uncertainty. The authority also has limited staff for managing numerous trade packages but wishes to maintain control over water-quality performance.

Analysis

DBB would provide strong design control but could produce extensive variations when underground conditions and operational interfaces are discovered. A pure EPC contract could transfer coordination responsibility but might attract a substantial contingency and restrict the authority’s ability to modify the process. A management contracting route would enable early packages and flexible coordination, but the authority lacks sufficient commercial and technical resources to manage the resulting cost uncertainty.

The preferred strategy is a two-stage design–build contract with early contractor involvement. Stage one covers design development, surveys, constructability review, temporary works planning and open-book pricing. Stage two proceeds after defined design, price and risk thresholds are approved. Critical water-quality performance obligations remain measurable and enforceable. The contract includes interface requirements for live-plant operations, compensation events for specified unknown services, and a target cost for uncertain work packages.

Outcome

The contractor identifies a major service conflict before construction and proposes a revised pipe corridor. The authority accepts the change after technical and cost review. Construction is phased around plant operations. Although the final price is not fixed at the start of stage one, the authority obtains better information before committing to the full works and reduces the likelihood of uncontrolled claims.

Learning points

1. Design maturity should influence the procurement route.

2. Risk transfer is credible only when the receiving party can price and manage the risk.

3. Operational interfaces require explicit performance and access provisions.

4. Two-stage procurement can preserve competition while enabling early contractor expertise.

5. Target-cost and open-book mechanisms require audit, governance and reliable records.

8. Ethical, Governance and Regulatory Considerations

Procurement decisions must be fair, transparent, proportionate and defensible. Key risks include conflicts of interest, undisclosed communications, collusion, bid leakage, bribery, discriminatory requirements and manipulation of evaluation criteria. Evaluators should declare interests and withdraw where impartiality is compromised.

Public projects may be subject to procurement legislation, freedom-of-information obligations, environmental approvals, labour requirements and audit by public authorities. Private projects remain subject to contract law, competition law, health and safety regulation, planning controls and professional duties.

Ethical procurement also addresses modern slavery, worker welfare, community displacement, accessibility, local employment and environmental harm. Social-value commitments should be measurable and monitored rather than used as vague promotional language.

9. Digital Technology, AI and Contemporary Developments

Building information modelling can support coordinated design, quantity extraction, asset information and interface management. Its benefits depend on information requirements, model responsibility, version control, access rights and contractual treatment of reliance on digital information.

Electronic tendering improves auditability and document control. Data dashboards can connect procurement status, changes, risks, payment and programme information. Artificial intelligence may assist with document comparison, risk-register analysis, tender queries and anomaly detection. However, AI outputs require human verification because training data may be incomplete, confidential information may be exposed and automated scoring can reproduce bias. AI should support—not replace—professional judgement, disclosed evaluation rules and accountable decision-making.

Contemporary procurement is also influenced by climate adaptation, embodied-carbon reduction, circular economy principles, supply-chain resilience and modern methods of construction. These objectives should be converted into specifications, measurable deliverables, evaluation criteria and payment or incentive mechanisms.

10. Challenges and Limitations

Procurement models are analytical simplifications of complex social and technical systems. Common limitations include:

  • incomplete information at the time of strategy selection;
  • overconfidence in nominal risk transfer;
  • pressure to select the lowest initial price;
  • inconsistent assessment of qualitative criteria;
  • inadequate client capability;
  • fragmented responsibilities and weak interfaces;
  • excessive contractual complexity;
  • poor records and delayed decisions; and
  • changing political, economic or regulatory conditions.

A sophisticated strategy therefore includes review points. The client should revisit assumptions when design develops, market conditions change, major risks crystallise or the project moves between phases.

Best-Practice Checklist

Before procurement, the client should confirm that:

  • project outcomes and acceptance criteria are defined;
  • the selected route matches scope maturity and uncertainty;
  • risks are allocated to parties able to manage them;
  • interfaces and responsibilities are documented;
  • tender criteria and evaluation procedures are approved in advance;
  • price assumptions and exclusions are visible;
  • contract authority and change procedures are established;
  • records and digital information requirements are defined;
  • ethical and sustainability requirements are measurable; and
  • the strategy has been tested against alternative scenarios.

Chapter Summary

Procurement, project delivery and contract strategy are interdependent decisions that shape project performance. Design–bid–build provides separation and client design control but may limit early contractor input. Design–build and EPC integrate design and construction, although they require clear performance requirements and careful treatment of uncertainty. Management contracting supports early work and package flexibility but demands strong client capability. PPP extends responsibility into financing and operation and must be assessed through whole-life public value. Collaborative models can address uncertainty and interfaces through shared objectives, open-book information and pain/gain arrangements.

An effective procurement strategy begins with project outcomes, design maturity, risk analysis, interface mapping, market capability and client capacity. Tender documents must provide clear and comparable information. Bid evaluation should be transparent, evidence-based and attentive to technical quality, price realism and life-cycle value. Contract administration then requires disciplined governance, notices, records, change control, payment management, programme assessment and dispute avoidance. Ethical conduct, regulatory compliance, digital information management, sustainability and responsible use of AI are now integral to professional procurement.

Key Terms

Procurement strategy: The overall approach for obtaining project resources, services and outcomes.

Project delivery model: The arrangement defining relationships and responsibilities among project participants.

Contract strategy: The selection of pricing, risk, payment, incentive and administrative provisions.

Design–bid–build: A delivery model in which design and construction are separately procured.

Design–build: A model assigning design and construction responsibility to one integrated entity.

EPC: Engineering, procurement and construction delivery, commonly involving integrated performance obligations.

Management contracting: A model in which a management contractor coordinates specialist works contractors.

Public–private partnership: A long-term public infrastructure arrangement involving private delivery, finance or operation.

Alliancing: A collaborative multi-party arrangement with shared risks, rewards and governance.

Target cost: An agreed cost benchmark against which savings and overruns are shared.

Lump sum: A price established for defined work, subject to contractual adjustments.

Remeasurement: Payment based on measured quantities and agreed rates.

Employer’s requirements: The client’s technical, functional and performance requirements.

Prequalification: Assessment of bidder capability before tender submission.

Bid evaluation: The systematic assessment of tenders against disclosed criteria.

Compensation event: A contractually recognised event giving entitlement to cost, time or both.

Contract administration: Management of contractual duties, records, payments, changes and claims.

Whole-life value: Assessment of cost, performance, risk and benefits over an asset’s life.

Interface: A point at which responsibilities, systems, packages or organisations interact.

Open-book accounting: Transparent disclosure and audit of relevant project costs.

Review Questions

Short Answer Questions

1. Distinguish procurement strategy from contract strategy.

2. State two advantages and two limitations of design–bid–build.

3. What factors should guide allocation of project risk?

4. Why is design maturity important when selecting a delivery model?

5. Identify four records that support assessment of a construction claim.

Long Answer Questions

1. Compare design–build and EPC in relation to responsibility, risk, performance requirements and client control.

2. Explain the circumstances in which management contracting may be preferable to traditional procurement.

3. Discuss the principal economic and governance issues that should be examined before adopting a PPP.

4. Describe a robust process for preparing tender documents and evaluating bids.

5. Explain how contract administration can reduce the likelihood and cost of disputes.

Analytical / Application Questions

1. A hospital project has evolving clinical requirements, a strict completion date and a technically capable client team. Compare two feasible procurement routes and recommend one, explaining the risks and assumptions.

2. A contractor submits a tender 18 percent below the next lowest compliant bid but excludes several temporary works items. Design an investigation and decision process for determining whether the tender is abnormally low.

3. For a complex rail project with numerous interfaces and uncertain ground conditions, develop a qualitative procurement strategy that addresses delivery model, pricing mechanism, risk allocation, governance and dispute avoidance.

Multiple Choice Questions with Answers

Question 1

Which project characteristic most strongly supports design–bid–build?

A. A fully defined scope with a mature design

B. Highly uncertain technology requiring early contractor innovation

C. A need for private financing and long-term operation

D. A requirement for integrated engineering and performance testing

Correct Answer: A. A fully defined scope with a mature design

Question 2

Under a typical EPC arrangement, the contractor commonly has responsibility for:

A. Only preparing construction drawings

B. Engineering, procurement and construction

C. Only operating the completed facility

D. Financing the public authority’s entire programme

Correct Answer: B. Engineering, procurement and construction

Question 3

What is the principal reason for allocating a risk to the party best able to manage it?

A. To ensure every risk is transferred away from the client

B. To avoid documenting the risk in the contract

C. To place control and consequences with the most capable party

D. To guarantee that the tender price is the lowest possible

Correct Answer: C. To place control and consequences with the most capable party

Question 4

Which feature is most characteristic of a collaborative target-cost arrangement?

A. All design risk is automatically transferred to the client

B. Savings and overruns are shared under an agreed mechanism

C. Payment is based only on the lowest tender price

D. The contractor has no obligation to disclose costs

Correct Answer: B. Savings and overruns are shared under an agreed mechanism

Question 5

If criterion weights sum to 1, the weighted evaluation score is calculated as:

A. The sum of each weight divided by its score

B. The sum of each score multiplied by its weight

C. The highest score minus the lowest score

D. The tender price multiplied by the programme duration

Correct Answer: B. The sum of each score multiplied by its weight

Question 6

Which document primarily defines the client’s functional and performance requirements?

A. Employer’s requirements

B. Site diary

C. Payment certificate

D. Bid bond receipt

Correct Answer: A. Employer’s requirements

Question 7

Why should an abnormally low tender be investigated?

A. It is automatically unlawful

B. It may contain errors, omissions or unrealistic assumptions

C. It always demonstrates superior contractor productivity

D. It cannot be evaluated under any procurement system

Correct Answer: B. It may contain errors, omissions or unrealistic assumptions

Question 8

Which activity is part of disciplined change management?

A. Implementing all verbal requests immediately without records

B. Ignoring programme effects until final completion

C. Assessing entitlement, cost and time before approval where practicable

D. Removing the change from the risk register after instruction

Correct Answer: C. Assessing entitlement, cost and time before approval where practicable

Question 9

A PPP decision should primarily be based on:

A. The assumption that private finance is always cheaper

B. Whole-life public value, affordability and measurable service performance

C. The shortest possible tender document

D. Elimination of all public-sector monitoring

Correct Answer: B. Whole-life public value, affordability and measurable service performance

Question 10

What is an important control when using AI in procurement evaluation?

A. Allowing the system to change evaluation criteria automatically

B. Removing human review from final decisions

C. Verifying outputs and maintaining accountable, disclosed decision-making

D. Using confidential bid data without access controls

Correct Answer: C. Verifying outputs and maintaining accountable, disclosed decision-making

Construction Project Management
Chapter 7 of 15