Carrier Selection, Freight Procurement and Contracting

Introduction and context

Transportation is not purchased merely as movement from origin to destination. It is a portfolio of capacity, reliability, information, risk transfer, compliance, and customer experience. A carrier that offers the lowest line-haul rate may create higher total cost through missed delivery appointments, claims, expediting, inventory disruption, or poor visibility. Consequently, carrier selection and freight procurement should be treated as strategic sourcing decisions rather than isolated rate negotiations.

Freight procurement links logistics requirements with the transport market. It includes demand definition, lane analysis, carrier qualification, tender design, bid evaluation, negotiation, award, contracting, implementation, and continuing performance management. Contracting converts commercial intentions into enforceable obligations concerning price, capacity, service, liability, data, change management, and termination.

The central managerial challenge is to balance cost, service, resilience, flexibility, and governance. A sound procurement process therefore evaluates the total value of a carrier relationship, not only the quoted tariff.

Learning objectives

After studying this chapter, the learner should be able to:

1. Explain the strategic role of carrier selection and freight procurement.
2. Design a carrier evaluation scorecard using weighted criteria.
3. Structure a tender, compare bids, and conduct principled negotiations.
4. Interpret common freight-rate structures and accessorial charges.
5. Distinguish spot, contract, dedicated, and hybrid transportation strategies.
6. Draft the principal elements of a freight contract and service-level agreement.
7. Design performance-based partnerships and governance mechanisms.
8. Analyse risks, ethics, regulation, technology, and limitations in carrier sourcing.

1. The carrier-selection decision

A carrier is a service provider that physically transports freight or arranges its transportation. Depending on the market, the buyer may contract directly with a motor carrier, rail operator, ocean carrier, airline, parcel company, or multimodal intermediary such as a freight forwarder or third-party logistics provider (3PL).

Selection decisions operate at three levels:

• Strategic level: network design, modal policy, dedicated capacity, geographic coverage, sustainability, and long-term partnerships.
• Tactical level: annual or seasonal awards, lane allocations, routing guides, capacity commitments, and rate negotiations.
• Operational level: daily tender acceptance, dispatch, tracking, exception management, and invoice settlement.

The decision should begin with a clearly defined transportation requirement. Important dimensions include origin and destination, shipment volume, weight and cube, equipment type, temperature or security requirements, pickup and delivery windows, appointment rules, hazardous-material status, customs obligations, service frequency, and anticipated variability.

A useful principle is fit before price. A carrier lacking the necessary authority, equipment, insurance, geographic coverage, or operating capability should not remain in contention simply because its quotation is attractive.

Total landed transportation cost

The relevant comparison is often total transportation cost rather than the base freight rate. A general expression is:

where:

• TC = total transportation cost;
• B = base line-haul charge;
• F = fuel or energy surcharge;
• A = accessorial charges, such as detention, lift-gate, or appointment fees;
• C = expected claims and cargo-loss cost;
• E = expected expediting, disruption, or failure cost;
• I = incremental inventory or safety-stock cost attributable to service uncertainty;
• V = verified value of rebates, credits, or other concessions.

All terms must be expressed in the same monetary period and currency. The equation is a decision model, not an accounting standard; it is useful only when the buyer can estimate the relevant cost consequences without double counting them. For example, delay cost should not be included both as an expediting cost and as an already-recognised inventory cost unless the two effects are distinct.

2. Carrier qualification and evaluation

2.1 Prequalification

Prequalification removes unacceptable risk before commercial comparison. Typical checks include:

• legal operating authority, licences, permits, and customs registrations;
• insurance limits and coverage exclusions;
• financial stability and continuity capability;
• safety record, accident history, and regulatory compliance;
• equipment ownership, maintenance, age, and availability;
• driver qualification and labour practices;
• cybersecurity, data-protection, and electronic interchange capability;
• environmental performance and emissions reporting;
• subcontracting controls and visibility into lower-tier providers;
• references from comparable customers.

A buyer should distinguish qualification from scoring. Qualification is frequently a pass-or-fail gateway. Scoring ranks carriers that have already met minimum requirements.

2.2 Evaluation scorecards

A scorecard converts multiple criteria into a transparent decision structure. Common criteria are cost, service reliability, capacity, safety, technology, geographic coverage, resilience, sustainability, and relationship capability.

The weighted-score method is:

where:

• [[S_j]] = total score of carrier [[j]];
• [[w_i]] = weight assigned to criterion [[i]], with weights normally summing to 1;
• [[r_{ij}]] = normalized rating of carrier [[j]] on criterion [[i]], commonly measured on a 0–100 scale;
• [[n]] = number of criteria.

The result is dimensionless. Weights represent managerial priorities and ratings represent performance against defined evidence. A scorecard is valid only when rating definitions are consistent. For example, “on-time delivery” should specify the measurement window, treatment of customer-caused delay, shipment population, and data source.

#### Illustrative scorecard

Although Beta has the better cost rating, Alpha ranks higher overall because service and compliance are strategically important. The result should be tested through sensitivity analysis. If a small change in the cost weight reverses the award, the decision is fragile and senior review is appropriate.

A scorecard should also include a risk overlay. A carrier may achieve a high numerical score but still present unacceptable concentration, sanctions, financial, cyber, labour, or environmental risk. Such risks can be handled as disqualifiers, explicit deductions, or contract controls.

2.3 Measuring service performance

Typical measures include:

• Tender acceptance: accepted tenders divided by valid tenders offered.
• On-time pickup: pickups occurring within the agreed time window divided by eligible pickups.
• On-time delivery: deliveries within the contractual window divided by eligible deliveries.
• In-full performance: shipments delivered with the required quantity and condition.
• Tender lead time: time between tender issuance and required pickup.
• Claim ratio: value or number of validated claims relative to shipment value or shipment count.
• Invoice accuracy: invoices requiring no correction divided by invoices submitted.
• Visibility compliance: shipments with required tracking events divided by tracked shipments.

The denominator and exclusions must be defined. For instance, a carrier should not be penalised for a consignee closure that it could not control, but exclusions must not become a mechanism for hiding poor performance. Data governance, audit rights, and a common event clock are essential.

3. Freight procurement and tendering

3.1 Procurement architecture

A robust procurement cycle normally follows these stages:

1. Spend and lane analysis: consolidate historical shipments, current rates, accessorials, service failures, seasonality, and demand forecasts.
2. Requirement design: define equipment, service, technology, compliance, sustainability, and capacity requirements.
3. Market intelligence: identify qualified carriers, capacity conditions, benchmark rates, and likely negotiation power.
4. RFI or prequalification: collect capability and risk information where the market is unfamiliar.
5. RFP or tender: issue comparable lane, volume, service, and commercial data.
6. Bid validation: check arithmetic, assumptions, exclusions, capacity commitments, and abnormal values.
7. Scenario analysis: test seasonal peaks, fuel changes, volume shifts, disruptions, and alternative allocations.
8. Negotiation and award: negotiate within an approved strategy and document the award rationale.
9. Contract implementation: publish routing guides, establish systems, train users, and conduct a controlled launch.
10. Performance review: monitor outcomes and apply governance, corrective action, and periodic reallocation.

3.2 Designing the tender

A tender should provide sufficient information for comparable bids without disclosing confidential competitor prices. A lane file commonly contains origin, destination, mileage or routing basis, shipment frequency, weight and cube distribution, equipment, loading requirements, appointment constraints, historical tender lead time, expected annual volume, seasonality, accessorial rules, and performance requirements.

The buyer must state whether bids are:

• all-in, including fuel and standard accessorials;
• base plus index, with fuel or another variable component separately adjusted; or
• menu-based, with defined charges for service options and exceptions.

Bid instructions should specify currency, validity period, taxes, assumptions, minimum charges, rounding, payment terms, capacity commitments, subcontracting, and the treatment of changed lanes or volumes. Ambiguous bid forms create false comparability.

3.3 Allocation and award logic

Awarding all freight to the cheapest carrier can reduce nominal price but increase concentration and disruption risk. A portfolio award may reserve shares for primary, secondary, and backup carriers. Allocation can reflect cost, expected service, minimum viable volume, strategic capacity, and resilience.

An illustrative allocation objective is:

subject to:

where [[x_j]] is volume allocated to carrier [[j]], [[c_j]] is expected unit cost, [[D]] is total demand, [[K_j]] is carrier capacity, [[R(x)]] represents risk cost, and [[P(x)]] represents penalties or service-failure costs. The model is useful conceptually, but risk terms must be estimated carefully. A complex optimisation model does not compensate for unreliable input data.

4. Negotiation and supplier relationship design

Negotiation should be prepared as a value and risk discussion, not as an attempt to extract concessions without regard to carrier economics. Preparation includes a should-cost view, market conditions, alternative carriers, demand flexibility, service priorities, reservation points, and planned trade-offs.

Important negotiation variables include:

• rate and indexation formula;
• minimum volume or revenue commitment;
• capacity reservation and tender acceptance;
• free time and accessorial treatment;
• claims liability and insurance;
• payment terms and audit rights;
• data, visibility, and integration obligations;
• fuel, toll, tax, and regulatory-change mechanisms;
• peak-season rules and emergency capacity;
• service credits, gain-sharing, and improvement commitments.

A constructive method is to exchange concessions conditionally: a longer commitment may justify a rate concession; forecast visibility may justify reserved capacity; faster payment may justify a discount. Each concession should have measurable value and a reciprocal obligation.

Ethically, procurement teams should use accurate forecasts, avoid misleading bids, respect confidentiality, and not impose commercially unreasonable terms that transfer uncontrollable risk without compensation. Sustainable sourcing also considers driver welfare, forced labour risks, subcontractor treatment, emissions, and safety—not only the buying organisation’s price.

5. Freight-rate structures

5.1 Common rate components

A freight invoice may contain:

• base line-haul rate;
• minimum charge;
• fuel or energy surcharge;
• distance, weight, dimensional, or density charge;
• accessorial charges;
• customs, security, port, terminal, or documentation fees;
• taxes and regulatory charges;
• detention, demurrage, storage, layover, or redelivery charges.

For a shipment with a base rate per shipment, fuel charge, and accessorials:

where [[R_b]] is the base rate, [[F_s]] is the fuel surcharge, [[A_k]] are applicable accessorials, and [[T]] is tax or regulatory charge. Units must be consistent: a rate per shipment cannot be added directly to a rate per kilometre without multiplying by the applicable distance.

5.2 Fuel-indexed rates

A common structure is:

where [[q]] is fuel quantity associated with the shipment or mileage basis, [[p]] is the index price, and [[α]] is the agreed fuel component or adjustment factor. Different contracts use different baselines, tables, lags, and caps. Therefore, the formula alone is insufficient; the index source, publication date, reference price, rounding, and adjustment frequency must be specified.

5.3 Minimum charges and dimensional pricing

When a tariff has a minimum charge, the payable charge is generally the greater of the calculated rate and the minimum:

For freight priced by dimensional weight, a carrier may compare actual weight with dimensional weight. If [[L]] is length, [[W]] width, [[H]] height, and [[d]] the dimensional divisor in cubic units per mass unit, then:

The divisor, measurement units, rounding rules, and package orientation must be stated. This relationship is applicable only where the tariff explicitly uses dimensional pricing.

Worked example: comparing two bids

A shipment has a base charge of 1,150 currency units under Carrier A, a fuel surcharge of 180, and expected accessorials of 70. Carrier B quotes a base charge of 1,060, fuel of 240, and expected accessorials of 130. Expected failure cost is 45 for A and 120 for B.

Carrier A total expected cost = 1,150 + 180 + 70 + 45 = 1,445.

Carrier B total expected cost = 1,060 + 240 + 130 + 120 = 1,550.

Carrier A is economically preferable by 105 currency units per shipment despite its higher base rate. The conclusion depends on the quality of the accessorial and failure-cost estimates.

6. Contracting and service-level agreements

A transportation contract should be read as an operating system for the relationship. It allocates responsibilities, establishes evidence, and provides remedies when conditions change.

6.1 Core contract architecture

A comprehensive arrangement may include:

1. Master agreement: legal relationship, authority, confidentiality, compliance, insurance, liability, dispute resolution, and termination.
2. Rate schedule or statement of work: lanes, equipment, rates, accessorials, indexation, and validity.
3. Service-level agreement (SLA): measurable performance standards, reporting, review, and remedies.
4. Operational appendices: tendering, appointments, documentation, tracking events, claims, and escalation.
5. Data-processing or technology schedule: interfaces, security, ownership, retention, and incident notification.

6.2 Essential clauses

Important provisions include:

• scope and service description;
• commencement, term, renewal, and termination rights;
• rates, invoicing, audit, and payment;
• capacity, tender response, and rejection rules;
• equipment and maintenance standards;
• subcontracting and flow-down obligations;
• cargo liability, insurance, claims, and limitation of liability;
• force majeure and business continuity;
• regulatory compliance, sanctions, anti-bribery, and labour standards;
• confidentiality, personal data, cybersecurity, and intellectual property;
• performance measurement, credits, cure plans, and escalation;
• change control and dispute resolution.

Legal enforceability varies by jurisdiction. Terms concerning liability, limitation periods, cargo claims, competition, employment classification, data protection, and environmental obligations should be reviewed by qualified legal counsel.

6.3 SLA design

An SLA should define the metric, formula, data source, population, target, reporting frequency, exclusions, cure period, and remedy. For example:

Targets should be challenging but attainable. Excessive service credits can encourage defensive behaviour or be priced into the tariff. Remedies should distinguish compensation, corrective action, and termination rights. A credit is not always an adequate remedy for a critical safety or compliance failure.

7. Spot, contract, and hybrid strategies

Spot procurement

Spot freight is purchased for immediate or short-term needs at market-responsive prices. It is useful when demand is uncertain, lanes are temporary, or contract capacity is unavailable. Its disadvantages include price volatility, variable service, limited relationship investment, and greater administrative effort.

Contract procurement

Contract freight uses agreed rates and obligations for a defined period. It supports budget planning, capacity assurance, standardisation, and relationship improvement. Its disadvantages include volume-forecast risk, possible market misalignment, minimum commitments, and reduced flexibility.

Hybrid portfolio

Most sophisticated shippers use a hybrid model: core predictable volume under contract, flexible or seasonal volume under mini-bids or spot purchase, and backup capacity through secondary carriers or brokers. The appropriate mix depends on demand variability, service criticality, market volatility, switching cost, and disruption exposure.

A practical decision rule is to place stable, high-volume, strategically important lanes under contract and retain flexible procurement for uncertain or episodic demand. This is not a universal formula. A volatile lane may still require a contract if failure consequences are severe and capacity must be reserved.

8. Performance-based partnerships

A transactional carrier relationship focuses on individual shipments and price. A partnership focuses on shared outcomes, joint planning, continuous improvement, and transparent economics. Partnership does not mean abandoning competitive discipline; it means aligning incentives over a longer horizon.

Useful mechanisms include:

• quarterly business reviews and executive governance;
• shared forecasts and capacity planning;
• open-book cost analysis where commercially appropriate;
• gain-sharing for verified savings or emissions reduction;
• joint route, loading, packaging, and dwell-time improvement;
• collaborative contingency exercises;
• balanced scorecards and improvement roadmaps;
• innovation pilots for visibility, automation, or alternative fuels.

Gain-sharing must define the baseline, measurement period, attribution method, implementation cost, and distribution of benefits. Otherwise, parties may dispute whether savings resulted from the carrier, the shipper, volume change, or market movement.

9. Governance, technology, and AI

Effective governance assigns ownership. A typical structure includes an operational review for immediate exceptions, a monthly performance meeting for trends and corrective action, and a quarterly business review for strategy, financial performance, risk, and innovation.

Transportation management systems (TMS) support tendering, routing guides, shipment planning, carrier allocation, tracking, freight audit, and analytics. Application programming interfaces, electronic data interchange, telematics, and control towers can improve visibility, but data quality and integration discipline remain prerequisites.

AI can support rate anomaly detection, demand forecasting, carrier-risk screening, document extraction, estimated-time-of-arrival prediction, and dynamic allocation. However, automated recommendations require governance. Training data may encode historical bias, a model may confuse correlation with causation, and a carrier should have an opportunity to challenge inaccurate performance or risk data. Human accountability remains necessary for safety, legal compliance, exceptional events, and high-impact decisions.

10. Illustrative case: Northstar Appliances

Background

Northstar Appliances, a fictional regional manufacturer, ships finished products from two factories to retailers and service depots. It previously awarded 90% of its truckload volume to one carrier because of a low base rate. The carrier’s price was attractive, but delivery performance deteriorated during seasonal peaks. Retail penalties, emergency shipments, and customer complaints increased.

Problem

The procurement team compared bids using only line-haul price. It lacked a common definition of on-time delivery, did not measure tender rejection consistently, and had no secondary-capacity plan. The carrier contract also permitted broad accessorial charges without preapproval.

Analysis

A six-month review showed that the incumbent’s base rate was 4% below the market median, but its accessorials and failure-related costs were substantially higher. The team estimated total expected cost, not merely the tariff. It also identified concentration risk: a disruption at the incumbent could affect nearly the entire outbound network.

Approach and solution

Northstar first established pass/fail qualification requirements for insurance, safety, authority, cybersecurity, and equipment. It then issued a lane-based RFP with standard definitions and requested all-in and base-plus-index alternatives. A scorecard assigned weights of 30% to total expected cost, 25% to delivery reliability, 20% to capacity, 15% to safety and compliance, and 10% to visibility.

The award allocated 60% of core volume to the incumbent, 30% to a qualified secondary carrier, and 10% to a flexible backup pool. The contract introduced preapproved accessorial rules, a transparent fuel index, tracking-event requirements, quarterly reviews, and a cure process for missed targets. Northstar and the primary carrier also agreed to a joint programme to reduce facility dwell time.

Outcome

In this illustrative case, the initial quoted rate increased modestly, but expected total cost declined because accessorial leakage and emergency shipments fell. Capacity during the peak season improved, and the company gained a credible alternative when the primary carrier experienced equipment shortages. The result demonstrates that a procurement award should be judged by total value, resilience, and controllability rather than by base rate alone.

Learning points

1. Define service and data before comparing bids.
2. Separate qualification from weighted ranking.
3. Price failure, accessorial, and concentration risks where evidence permits.
4. Use portfolio allocation to balance efficiency and resilience.
5. Convert negotiated intentions into measurable contract obligations.
6. Review the operating model after implementation; a good contract cannot correct poor loading, forecasting, or appointment practices by itself.

11. Challenges and limitations

Carrier procurement is affected by volatile fuel prices, capacity cycles, geopolitical disruption, labour shortages, infrastructure constraints, extreme weather, regulatory change, and imperfect forecasts. Scorecards can create false precision when ratings are subjective or data is incomplete. Historical performance may unfairly penalise a carrier that inherited poor lanes or customer processes. Lowest-cost awards can encourage unsafe practices, excessive driver hours, underinvestment, or hidden subcontracting.

A further limitation is the difficulty of assigning monetary values to resilience, reputation, safety, and environmental harm. Decision makers should disclose assumptions, perform sensitivity analysis, and use managerial judgement alongside quantitative models. Procurement should also avoid supplier dependency, conflicts of interest, collusion, discriminatory tender requirements, and retaliation against legitimate carrier complaints.

Best-practice checklist

• Define the business requirement and criticality of each lane.
• Establish pass/fail compliance gates before commercial scoring.
• Use total expected cost and test assumptions through sensitivity analysis.
• Make tender data, units, fuel rules, and accessorials comparable.
• Maintain a qualified carrier portfolio rather than relying automatically on one supplier.
• Contract measurable service definitions, data rights, liability, and change mechanisms.
• Align incentives with safe, reliable, efficient, and sustainable performance.
• Govern data, algorithms, subcontractors, and lower-tier risk.
• Review performance regularly and use corrective action before punitive escalation.
• Re-tender or benchmark when market conditions, network design, or service requirements materially change.

Chapter Summary

Carrier selection and freight procurement are integrated decisions involving cost, service, capacity, risk, compliance, and long-term value. Qualification establishes whether a carrier is acceptable; a weighted scorecard ranks qualified alternatives. Tendering requires accurate lane data, clear commercial assumptions, comparable bid structures, and explicit allocation logic. Total expected transportation cost includes base freight, fuel, accessorials, claims, failure effects, inventory consequences, and concessions where these can be estimated without double counting.

Freight rates may contain line-haul, fuel, minimum, dimensional, accessorial, tax, and regulatory components. Contracts should combine a master agreement, rate schedule, SLA, operational procedures, and technology provisions. Effective SLAs define metrics, denominators, targets, data sources, exclusions, remedies, and review procedures. Spot procurement provides flexibility, contract procurement provides stability, and hybrid portfolios balance both.

Advanced procurement creates performance-based partnerships through shared forecasts, governance, gain-sharing, continuous improvement, and transparent data. Technology and AI can improve visibility and decision support, but require data quality, human oversight, cybersecurity, and fairness controls. The central professional principle is to award transportation on total value and managed risk—not on nominal price alone.

Key Terms

Accessorial charge: A charge for a service or condition beyond the standard freight movement.

Carrier: An organisation that transports freight or arranges transportation.

Carrier scorecard: A structured evaluation tool combining defined criteria, ratings, and weights.

Contract freight: Transportation purchased under pre-agreed rates and obligations for a defined period.

Dimensional weight: A calculated weight based on package volume for pricing bulky, lightweight freight.

Fuel surcharge: A variable charge linked to an agreed fuel-price mechanism.

Freight tender: A formal request for carriers to submit prices and service commitments.

Gain-sharing: An arrangement in which verified benefits are shared between parties.

Master transportation agreement: The principal legal document governing the carrier relationship.

Minimum charge: The lowest payable charge specified by a tariff or contract.

On-time delivery: Delivery within the agreed contractual time window.

Qualification gate: A pass-or-fail requirement that must be met before scoring or award.

Routing guide: An instruction specifying preferred carriers and the sequence for tendering freight.

Service-level agreement: A document defining measurable service requirements and remedies.

Spot freight: Transportation purchased at short notice at a market-responsive price.

Tender acceptance: The proportion of valid shipment offers accepted by a carrier.

Total expected transportation cost: Freight cost including relevant surcharges, accessorials, failure effects, and other attributable costs.

Weighted score: A combined evaluation result produced by multiplying criterion weights by carrier ratings.

Review Questions

Short Answer Questions

1. Distinguish carrier qualification from carrier scoring.
2. Why can a lower line-haul rate produce a higher total transportation cost?
3. Identify four common components of a freight invoice.
4. What information should an SLA specify for every performance metric?
5. State one advantage and one disadvantage of spot procurement.

Long Answer Questions

1. Explain the stages of a strategic freight-procurement cycle and the managerial purpose of each stage.
2. Discuss how a weighted carrier scorecard should be designed, validated, and subjected to sensitivity analysis.
3. Compare spot, contract, dedicated, and hybrid transportation strategies.
4. Describe the essential legal, commercial, operational, and technological provisions of a transportation contract.
5. Explain how a shipper can convert a transactional carrier relationship into a performance-based partnership.

Analytical / Application Questions

1. Two carriers offer different combinations of base rate, fuel surcharge, accessorials, and expected failure cost. Construct a total-cost comparison and recommend a carrier, stating your assumptions.
2. Design a scorecard for a temperature-controlled pharmaceutical lane. Select criteria, weights, rating definitions, qualification gates, and risk controls.
3. A shipper currently awards 90% of its freight to one low-cost carrier but experiences peak-season failures. Recommend a portfolio, tender, contract, and governance strategy that improves resilience without unnecessarily increasing cost.

Multiple Choice Questions with Answers

Question 1

Which statement best distinguishes carrier qualification from carrier scoring?

A. Qualification ranks all carriers, while scoring verifies licences.

B. Qualification is usually a pass-or-fail gateway, while scoring ranks acceptable carriers.

C. Qualification concerns price only, while scoring concerns safety only.

D. Qualification occurs after contracting, while scoring occurs before tendering.

Correct Answer: B. Qualification is usually a pass-or-fail gateway, while scoring ranks acceptable carriers.

Question 2

A carrier has a base charge of 1,150, fuel surcharge of 180, accessorials of 70, and expected failure cost of 45. What is its expected total cost?

A. 1,325

B. 1,375

C. 1,445

D. 1,495

Correct Answer: C. 1,445

Question 3

In a weighted scorecard, what does a criterion weight represent?

A. The carrier’s quoted price in monetary units

B. The relative importance assigned to that criterion

C. The number of shipments evaluated

D. The carrier’s regulatory authority

Correct Answer: B. The relative importance assigned to that criterion

Question 4

Which practice improves comparability in a freight tender?

A. Allowing every carrier to define on-time delivery differently

B. Withholding shipment-volume information entirely

C. Specifying common units, assumptions, fuel rules, and accessorial treatment

D. Evaluating only the lowest base rate

Correct Answer: C. Specifying common units, assumptions, fuel rules, and accessorial treatment

Question 5

Which provision is most directly associated with an SLA?

A. A definition of the service metric, target, data source, and remedy

B. A carrier’s corporate history

C. A general marketing statement

D. An unrelated warehouse layout

Correct Answer: A. A definition of the service metric, target, data source, and remedy

Question 6

What is a principal advantage of contract freight over spot freight?

A. It always produces the lowest market price

B. It supports planned capacity and greater budget stability

C. It eliminates all demand uncertainty

D. It requires no performance monitoring

Correct Answer: B. It supports planned capacity and greater budget stability

Question 7

If a calculated freight charge is 820 currency units and the contractual minimum charge is 900, what amount is payable before other charges?

A. 820

B. 860

C. 900

D. 1,720

Correct Answer: C. 900

Question 8

Which allocation approach generally improves resilience compared with awarding all volume to one carrier?

A. Using a qualified primary carrier plus secondary or backup capacity

B. Selecting only the carrier with the lowest base rate

C. Changing carriers randomly each day

D. Removing all capacity commitments

Correct Answer: A. Using a qualified primary carrier plus secondary or backup capacity

Question 9

What is a major governance risk when using AI for carrier evaluation?

A. It makes all data automatically accurate

B. Historical data may contain bias or inaccurate performance records

C. It removes the need for human accountability

D. It prevents any form of forecasting

Correct Answer: B. Historical data may contain bias or inaccurate performance records

Question 10

Which is an example of gain-sharing?

A. A carrier receives a fixed penalty regardless of results

B. Verified savings from a joint improvement are distributed according to an agreed formula

C. A shipper changes the contract without notice

D. A carrier invoices accessorials without documentation

Correct Answer: B. Verified savings from a joint improvement are distributed according to an agreed formula