Cost & Management Accountancy

Chapter 11
Pricing, Product Profitability and Life-Cycle Cost Management

Chartered Finance Manager (CFM)
Cost & Management Accountancy   •   Post Graduate

Pricing, Product Profitability and Life-Cycle Cost Management

Introduction and context

Pricing is one of the most consequential decisions in management accounting. It converts a product, service, or customer proposition into revenue and therefore affects contribution, market position, capacity utilisation, cash flow, customer relationships, and long-term enterprise value. A price decision cannot be reduced to adding a percentage to cost. Costs influence the price a firm can sustain, but customers, competitors, perceived value, regulation, channel power, strategic objectives, and the stage of the product life cycle also matter.

For a Chartered Finance Manager, pricing analysis requires integration of cost information with market intelligence and strategic judgement. The accountant must distinguish relevant from irrelevant costs, avoid arbitrary allocations, understand behavioural responses, and communicate uncertainty. The objective is not always to maximise the margin on an individual transaction. A firm may accept a lower short-term margin to enter a market, utilise constrained capacity, build a customer relationship, or defend a strategically important product—provided that the decision is economically justified and ethically defensible.

This chapter examines cost-plus, market-based, value-based, and transfer pricing; target, life-cycle, kaizen, and quality costing; customer profitability; and product portfolio analysis.

Learning objectives

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

  1. Explain the economic and managerial foundations of alternative pricing approaches.
  2. Calculate and evaluate cost-plus, target, relevant-cost, and transfer prices.
  3. Apply target costing, life-cycle costing, kaizen costing, and quality costing.
  4. Analyse customer and product profitability using appropriate cost drivers.
  5. Use portfolio frameworks without confusing accounting profit with strategic attractiveness.
  6. Evaluate limitations, behavioural consequences, governance risks, and ethical issues in pricing decisions.

1. The economics of pricing decisions

A price decision links three elements: the customer’s willingness to pay, the firm’s cost and capacity structure, and the competitive and institutional environment. Demand is usually price-sensitive, although the degree of sensitivity differs by segment and product. Price elasticity of demand is commonly expressed as:

ε = (% change in quantity demanded) ÷ (% change in price)

Here ε is price elasticity, quantity demanded is the volume customers purchase, and price is the monetary price per unit. The expression is dimensionless. In most commercial applications, ε is negative; managers often discuss its absolute value. The relationship is useful only over the relevant range and assumes other material influences are held approximately constant. A highly elastic market may punish a price increase severely, whereas a differentiated or regulated product may be less elastic.

For a single product with price P, variable cost per unit V, and quantity Q, contribution is:

Contribution = (P − V) × Q

Fixed costs do not change with output within the relevant range. Operating profit is:

Operating profit = (P − V) × Q − F

where F is total fixed cost for the relevant period. These equations are short-run planning relationships, not complete pricing models. They exclude strategic effects, capacity expansion, taxes, financing, risk, and non-financial objectives.

When demand is represented by a continuous function Q(P), revenue is R(P) = P × Q(P). A profit-maximising firm with cost C(Q) selects output where marginal revenue is equal to marginal cost, subject to constraints:

MR = MC

This condition applies to an unconstrained economic optimum under differentiability and an interior solution. It does not imply that the accounting price should simply equal marginal cost. A firm must also recover fixed and opportunity costs over an appropriate planning horizon.

2. Major approaches to pricing

2.1 Cost-plus pricing

Under cost-plus pricing, a markup is applied to a selected cost base. If unit cost is C and markup is m as a percentage of cost, then:

Price = C × (1 + m)

If the required margin is expressed as a percentage of selling price, s, the correct formula is:

Price = C ÷ (1 − s)

These formulas are not interchangeable. For example, a 25% markup on cost produces a price of 125 when cost is 100, but a 25% margin on selling price requires a price of 133.33.

Cost-plus pricing is administratively simple and can support cost recovery in regulated contracts, construction, professional services, and customised production. It is also transparent when the cost base and markup policy are agreed. Its weaknesses are equally important: the cost may contain arbitrary allocations; inefficient operations can be rewarded; demand may be ignored; and a price based on full cost may be unsuitable for a short-run capacity decision.

A professional analysis must specify whether the cost base includes direct cost only, variable manufacturing cost, full manufacturing cost, or total life-cycle cost. It must also clarify treatment of selling, distribution, research, warranty, financing, and corporate overheads.

2.2 Market-based pricing

Market-based pricing starts with external conditions. Management analyses competitor prices, customer segments, substitutes, capacity, channel margins, regulation, and expected demand. Cost information then tests whether the proposed price is viable and identifies the cost structure required to earn the desired return.

Market-based pricing is especially relevant for standardised products and competitive markets. It may involve penetration pricing, price skimming, promotional pricing, dynamic pricing, or segmented pricing. Dynamic pricing uses changing information about demand, inventory, time, and capacity; it is common in transport, hospitality, digital services, and energy markets.

The danger is treating a competitor’s price as an unquestioned benchmark. Competitors may have different technology, quality, financing, scale, tax position, or strategic objectives. Market data also requires careful control because collusive exchange of sensitive information can create competition-law risks.

2.3 Value-based pricing

Value-based pricing relates price to the customer’s perceived economic and non-economic benefits rather than primarily to the seller’s cost. A useful conceptual ceiling is the customer’s economic value:

Customer economic value = Reference value + Differentiation value

Reference value is the cost or benefit of the customer’s next-best alternative. Differentiation value is the incremental benefit attributable to the proposed offering, less any incremental customer cost or risk. The equation is a managerial framework, not a mechanical valuation rule. Benefits may include lower energy consumption, reduced downtime, faster service, compliance, lower risk, or improved user experience.

Value-based pricing requires segmentation and evidence. Interviews, conjoint analysis, usage data, pilot studies, and total-cost-of-ownership models can estimate willingness to pay. The firm should not attempt to capture all customer value: leaving part of the value with the customer can encourage adoption and create a sustainable relationship. Ethical practice requires that claims about savings, safety, or performance be supportable and not exploit information asymmetry.

2.4 Relevant-cost and special-order pricing

For a short-term decision with spare capacity, the minimum economically acceptable price normally covers incremental cash costs and any opportunity cost. Sunk costs are not relevant because they cannot be changed by the decision. If the order uses scarce capacity, the opportunity contribution from displaced business must be included.

Minimum relevant price per unit = Incremental cost per unit + Opportunity cost per unit

This is a decision floor, not necessarily a recommended market price. A price below full long-run cost may be rational temporarily, but repeated use can damage brand positioning, trigger competitor responses, or fail to finance asset replacement.

Worked example 1: alternative pricing bases

A product has variable cost of $48 per unit and allocated fixed cost of $12 per unit. Management requires a 20% markup on full cost.

Full cost = $48 + $12 = $60.

Cost-plus price = $60 × 1.20 = $72.

If management instead requires a 20% margin on selling price:

Price = $60 ÷ (1 − 0.20) = $75.

Suppose a special order is available at $55 per unit when the firm has spare capacity. The incremental cost is $48, so the short-run contribution is $7 per unit. The order is acceptable on short-run quantitative grounds if it does not create additional fixed cost, cannibalise regular sales, or impose material strategic or contractual costs. The allocated fixed cost of $12 is not relevant to this incremental decision unless it changes because of the order.

3. Target costing and strategic cost management

Target costing reverses the traditional sequence. Instead of calculating cost and adding a markup, management begins with the market price and subtracts the required profit:

Target cost = Target selling price − Target profit

Target profit may be based on a required return on sales, invested capital, or a broader strategic objective. If target selling price is 250 and target profit is 50, target cost is 200. If expected current cost is 218, a cost gap of 18 exists.

Cost gap = Current estimated cost − Target cost

Target costing is most effective during product design, when a large proportion of life-cycle cost is committed but not yet incurred. Cross-functional teams—engineering, purchasing, production, marketing, service, finance, and customers—use value engineering to remove unnecessary cost while preserving functions valued by customers.

Value analysis distinguishes a product function from the cost of delivering it. A function-cost index can be used cautiously:

Function-cost index = Relative customer value of function ÷ Relative cost of function

A low index may indicate an opportunity for redesign, but value cannot be reduced to a single ratio. Safety, legal compliance, reliability, and strategic differentiation must not be sacrificed for a superficial cost reduction.

Target costing is not merely a budgeting technique. It changes design governance, supplier relationships, specifications, and the timing of management accounting. It may also create pressure to transfer costs to suppliers or reduce quality; governance must therefore include quality gates and documented customer requirements.

4. Life-cycle costing

Life-cycle costing evaluates costs and revenues across the entire economic life of a product, from research and development through design, launch, production, distribution, service, withdrawal, and disposal. Traditional product costing can overemphasise manufacturing cost even though design, warranty, customer support, and end-of-life costs may be substantial.

A simple undiscounted life-cycle profit is:

Life-cycle profit = Total life-cycle revenue − Total life-cycle cost

For decisions involving different timing, discounting is appropriate. Present value is:

PV = CFt ÷ (1 + r)t

where CF_t is cash flow in period t, r is the discount rate per period, and t is the number of periods from the valuation date. The formula assumes periodic compounding, a constant rate for the relevant calculation, and cash flows measured consistently. If inflation, tax, or risk adjustments are included, they must be treated consistently with the discount rate.

Life-cycle cost categories include research, design, tooling, testing, production, logistics, marketing, warranty, upgrades, technical support, returns, recycling, and disposal. The analysis helps management compare designs, establish warranty reserves, identify profitable customers, and understand the consequences of product architecture.

Life-cycle costing has limitations. Forecasts far into the future are uncertain; common costs may be difficult to assign; product boundaries can be disputed; and strategic benefits may not appear as immediate cash flows. Scenario and sensitivity analysis should accompany a single-point estimate.

5. Kaizen costing

Kaizen costing is a continuous, incremental approach to reducing cost during the manufacturing and delivery phase. Unlike target costing, which is primarily design-oriented, kaizen costing operates after commercial production begins. It uses employee suggestions, process mapping, waste reduction, setup-time reduction, defect prevention, supplier collaboration, and standard-cost review.

A kaizen target may be expressed as:

Required cost reduction = Current standard cost − Revised target cost

The calculation is simple, but implementation is behavioural. Cost reduction should not be achieved by unsafe work, excessive labour intensity, lower product reliability, or shifting costs to customers and suppliers. Useful measures include first-pass yield, cycle time, rework, inventory days, changeover time, customer complaints, and cost per good unit.

Kaizen costing complements, rather than replaces, target costing. Target costing asks whether the product can be designed profitably; kaizen costing asks how the operating system can continually improve its economics while preserving required value.

6. Quality costing

Quality costing makes visible the economic consequences of conformance and non-conformance. The conventional categories are:

CategoryMeaningExamples
PreventionCosts incurred to avoid defectsTraining, process design, supplier qualification
AppraisalCosts of evaluating conformanceInspection, testing, audits
Internal failureDefects found before deliveryScrap, rework, retesting, downtime
External failureDefects found after deliveryWarranty, returns, complaints, recalls, reputation damage

Total cost of quality is often represented as:

COQ = Prevention cost + Appraisal cost + Internal failure cost + External failure cost

The categories are additive when costs are classified consistently. The purpose is not to minimise prevention or appraisal in isolation. Greater prevention expenditure may reduce failure costs and total cost of quality. Quality costing should include opportunity costs such as lost future sales where they can be estimated credibly, while clearly distinguishing measured costs from uncertain effects.

Six Sigma, statistical process control, failure mode and effects analysis, and digital traceability can support quality-cost management. Finance professionals should challenge metrics that reward inspection volume rather than defect prevention or customer outcomes.

7. Transfer pricing

Transfer pricing determines the price for goods, services, financing, intellectual property, or shared resources exchanged between divisions or related entities. It has three distinct purposes:

  1. Decision-making: encouraging economically efficient internal sourcing and output.
  2. Performance evaluation: measuring divisional results fairly.
  3. Tax and regulatory compliance: allocating taxable income consistently with applicable law and the arm’s-length principle.

These purposes can conflict. A transfer price that motivates divisional decisions may not produce an appropriate tax allocation or performance measure.

Transfer pricing with spare and constrained capacity

If the supplying division has spare capacity, the minimum transfer price is generally variable cost plus any incremental transfer cost. If the supplying division is at capacity, the opportunity cost of lost external contribution must be added:

Minimum transfer price = Variable cost + Opportunity cost

The receiving division’s maximum acceptable transfer price is usually its external purchase price for an equivalent input, adjusted for avoidable purchasing and transaction costs. A mutually acceptable range exists when the supplier’s minimum is no greater than the buyer’s maximum.

Worked example 2: capacity and transfer pricing

Division S has variable cost of $30 per unit. Division B can buy the component externally for $52. If S has spare capacity, its minimum transfer price is $30, and the buyer’s maximum is $52. A negotiated price between $30 and $52 can benefit both divisions, although the chosen price affects reported divisional profit.

If S is operating at full capacity and an external customer would generate a contribution of $18 per unit, the minimum transfer price becomes:

$30 + $18 = $48.

The feasible range is then $48 to $52. If the opportunity contribution were $25, the minimum would be $55 and internal transfer would be inefficient compared with external purchase at $52.

Common methods include market-based prices, negotiated prices, cost-based prices, dual pricing, and two-part tariffs. Cost-based transfer prices can transmit inefficiency and create disputes over fixed-cost allocations. Market prices are attractive when a competitive external market exists, but internal transactions may differ in volume, quality, delivery, and risk. International related-party transactions require documentation and compliance with local rules, treaties, and OECD-informed arm’s-length principles where applicable. Transfer pricing must never be used to conceal fraud, evade tax, or manipulate performance bonuses.

8. Customer profitability analysis

Revenue is not the same as customer profitability. Two customers with identical sales may impose very different costs through order frequency, customisation, delivery requirements, returns, support, credit risk, and payment delays. Customer profitability analysis (CPA) assigns costs using causal cost drivers, often supported by activity-based costing.

A basic customer profit measure is:

Customer profit = Customer revenue − Customer-specific and allocated service costs

Relevant costs may include sales commissions, order processing, picking, delivery, installation, technical support, returns, bad debts, account management, and discounts. Shared overhead should be allocated only when the allocation is decision-useful and causally defensible. Otherwise, a contribution hierarchy is preferable to false precision.

A customer profitability matrix can classify customers by current profitability and future strategic value. An apparently unprofitable customer may have growth potential, influence over other buyers, learning value, or temporary onboarding costs. Conversely, a currently profitable customer may be risky because of excessive bargaining power or concentration.

Appropriate actions include price or service redesign, minimum order quantities, delivery charges, digital self-service, differentiated service levels, renegotiation, or—in extreme cases—withdrawal. Data protection, discrimination, transparency, and contractual fairness must be considered when customers are segmented or charged differently.

9. Product portfolio analysis

Product portfolio analysis combines financial and strategic information. Useful measures include contribution margin, life-cycle profit, return on invested capital, growth, market share, capacity consumption, quality risk, customer retention, and strategic complementarity.

The Boston Consulting Group matrix classifies businesses by relative market share and market growth: stars, cash cows, question marks, and dogs. It is a communication framework, not a complete decision model. Market share may not create advantage, growth may destroy cash, and products classified as dogs may provide essential compatibility or reputation benefits.

A more financially grounded portfolio analysis may use contribution per constrained resource:

Contribution per constrained resource unit = Unit contribution ÷ Constrained resource usage per unit

This measure is valid for short-run prioritisation when the constraint is correctly identified, demand is available, product quality is maintained, and fixed costs do not change. It should not be used as the sole basis for long-term product withdrawal.

Portfolio decisions should incorporate cannibalisation, option value, platform effects, regulatory exposure, environmental obligations, and customer ecosystem effects. A product can be strategically valuable even when its standalone accounting margin is modest.

10. Integrated illustrative case: Orion Medical Devices

Background

The following is a fictional illustrative case. Orion Medical Devices is preparing to launch a portable diagnostic monitor. The market contains a basic competitor priced at $1,200. Hospitals value reliability, remote monitoring, and lower downtime, but procurement departments face strict budgets. Orion expects to sell 10,000 units over the product’s life.

Problem

Engineering estimates manufacturing cost at $780 per unit. Expected service, warranty, distribution, and end-of-life costs average $170 per unit. Development and tooling costs are expected to total $2.4 million. Management wants a life-cycle profit of $3.0 million before tax. A proposed design includes an advanced battery system costing $65 per unit, but customer research suggests that only a segment values the feature strongly.

Analysis

Expected life-cycle revenue at a price of $1,200 is:

10,000 × $1,200 = $12.0 million.

Manufacturing and downstream variable costs are:

10,000 × ($780 + $170) = $9.5 million.

Adding development and tooling gives total life-cycle cost of $11.9 million. Expected life-cycle profit is therefore $0.1 million, far below the $3.0 million objective.

The target cost is:

Target cost = $12.0 million − $3.0 million = $9.0 million,

or $900 per unit when the $2.4 million development cost is included across 10,000 units. The current estimated total cost per unit is $1,190 ($780 + $170 + $240), creating a cost gap of $290 per unit.

The team should not simply remove the battery feature. It should investigate customer value, reliability requirements, supplier design, modular architecture, expected warranty effects, and segment-specific versions. Suppose value research supports a premium version at $1,350 for 30% of units, while 70% remain at $1,200. Expected revenue becomes:

(3,000 × $1,350) + (7,000 × $1,200) = $12.45 million.

The additional revenue is $450,000. It does not close the entire cost gap, but it improves the business case. Cross-functional value engineering may reduce manufacturing cost by $120 per unit, while prevention investment of $0.3 million is expected to reduce warranty and service costs by $0.5 million over the product life. The net improvement is $1.7 million ($1.2 million manufacturing reduction + $0.5 million service reduction), before considering the $0.3 million prevention investment if it is already included in the stated improvement; the team must avoid double counting.

Approach and solution

Orion should adopt a segmented target-costing plan: a compliant basic model and a premium model with the advanced battery. It should establish design-to-cost gates, supplier negotiations, reliability testing, and a life-cycle cost dashboard. During production, kaizen teams should reduce setup time and rework. Quality costing should track prevention, appraisal, warranty, returns, and field failures separately. Customer profitability analysis should distinguish hospitals requiring intensive installation and support from digitally enabled customers.

Outcome and learning points

The case illustrates that price, cost, customer value, and product design must be considered together. A target price is not automatically achievable; a cost gap requires design and process action. Premium segmentation can improve value capture, but only if the differentiation is credible. Life-cycle costing prevents management from overlooking development and service costs. Quality expenditure should be evaluated by its effect on total cost and customer outcomes, not treated as an overhead to be cut indiscriminately.

11. Technology, governance, and contemporary developments

Enterprise resource planning, activity-based costing software, customer data platforms, and Internet-of-Things sensors can improve pricing and profitability analysis. AI can support demand forecasting, price experimentation, anomaly detection, product configuration, and customer segmentation. However, algorithmic pricing can reproduce biased data, create opaque discrimination, facilitate tacit coordination, or exploit vulnerable customers. Models require human oversight, documented assumptions, access controls, audit trails, and periodic validation.

Sustainability is increasingly part of product economics. Carbon prices, circular design, repairability, recycling obligations, supply-chain due diligence, and social costs may affect target and life-cycle cost. These items should be measured under applicable reporting and regulatory frameworks and labelled clearly when estimates are uncertain. A finance manager should distinguish controllable cost from externally imposed cost, financial cost from social impact, and verified data from modelled assumptions.

Best practice includes the following:

  • begin with the decision and relevant time horizon;
  • combine customer, competitor, operational, and financial evidence;
  • separate variable, fixed, sunk, avoidable, and opportunity costs;
  • use causal cost drivers rather than arbitrary allocations;
  • make assumptions, uncertainty, and sensitivity visible;
  • involve design, operations, marketing, procurement, legal, and finance;
  • monitor realised profitability after launch;
  • protect quality, safety, data privacy, and competition;
  • review incentives so that managers do not manipulate prices or transfer costs;
  • use scenario analysis rather than relying on a single forecast.

Chapter Summary

Pricing is a strategic and accounting decision shaped by cost, demand, competition, customer value, capacity, and regulation. Cost-plus pricing provides simplicity but may ignore the market; market-based pricing begins with external conditions; value-based pricing seeks to capture a defensible portion of customer economic value; and relevant-cost pricing supports short-run decisions when capacity and opportunity costs are understood.

Target costing starts with a market-informed price and desired profit, then manages the resulting cost gap through design and value engineering. Life-cycle costing includes development, production, service, warranty, and disposal, while kaizen costing pursues continuous operational improvement after launch. Quality costing classifies prevention, appraisal, and failure costs to support economically sound quality decisions.

Transfer pricing must reconcile divisional incentives, capacity economics, performance measurement, and tax compliance. Customer profitability analysis reveals the cost-to-serve differences hidden by product-level margins. Product portfolio analysis combines financial measures with growth, strategic fit, risk, and resource constraints. Across all methods, professional judgement, ethical conduct, transparent assumptions, and effective governance are essential.

Key Terms

Cost-plus pricing: Pricing based on a specified markup applied to a defined cost base.

Market-based pricing: Pricing determined primarily by competitive, demand, and market conditions.

Value-based pricing: Pricing related to customer-perceived economic and functional value.

Relevant cost: A future cost that differs between decision alternatives.

Opportunity cost: The contribution forgone by selecting one alternative instead of the next best alternative.

Target costing: A system that derives allowable cost from market price and desired profit.

Cost gap: The difference between estimated current cost and target cost.

Value engineering: Cross-functional analysis to reduce cost while preserving required functions and value.

Life-cycle costing: Measurement and management of costs and revenues over a product’s entire economic life.

Kaizen costing: Continuous, incremental cost reduction during production and delivery.

Quality costing: Analysis of prevention, appraisal, internal failure, and external failure costs.

Transfer price: The price charged for transactions between divisions or related entities.

Arm’s-length principle: The expectation that related-party transactions reflect conditions comparable to independent-party dealings.

Customer profitability analysis: Analysis of revenue and cost-to-serve by customer or segment.

Activity-based costing: Cost assignment using activities and cost drivers that reflect resource consumption.

Contribution margin: Sales revenue less variable cost.

Constrained resource: A scarce resource limiting output or profitability.

Portfolio analysis: Evaluation of products or businesses using financial and strategic dimensions.

Dynamic pricing: Adjustment of prices in response to changing demand, capacity, inventory, or timing.

Cost of quality: The combined economic cost of prevention, appraisal, and internal and external failures.

Review Questions

5 Short Answer Questions

  1. Distinguish a markup on cost from a margin on selling price.
  2. Why can an allocated fixed cost be irrelevant to a special-order decision?
  3. State the basic target-costing equation and explain its components.
  4. What are the four conventional categories of quality cost?
  5. Why does customer revenue not necessarily indicate customer profitability?

5 Long Answer Questions

  1. Critically evaluate cost-plus, market-based, and value-based pricing for a differentiated technology product.
  2. Explain how target costing and life-cycle costing complement each other in new-product development.
  3. Discuss the effects of spare capacity and constrained capacity on transfer pricing.
  4. Explain how kaizen costing and quality costing can improve profitability without undermining customer value.
  5. Evaluate the usefulness and limitations of portfolio matrices in strategic product decisions.

3 Analytical / Application Questions

  1. A product has variable cost of $42 and allocated fixed cost of $18 per unit. Calculate the price using a 25% markup on full cost and the price required for a 25% margin on selling price. Explain the difference.
  2. A supplying division incurs variable cost of $36 per unit. It can sell externally for $70, with a contribution of $24 per unit, while the buying division can purchase externally for $74. Determine the minimum transfer price when the supplier is at capacity and state the feasible negotiation range.
  3. A product sells for $900 and is expected to generate 8,000 units. Life-cycle costs include development of $1.6 million and recurring cost of $650 per unit. Calculate life-cycle profit before tax and assess whether a target profit of $1.5 million is achieved. Identify two non-financial issues that should be investigated before launch.

Multiple Choice Questions with Answers

Question 1

A product has full cost of $80. What price provides a 25% margin on selling price?

A. $100.00

B. $106.67

C. $105.00

D. $120.00

Correct Answer: B. $106.67

Question 2

Which cost is normally excluded from a short-run special-order decision when it cannot be changed by accepting the order?

A. Incremental material cost

B. Additional delivery cost

C. Sunk cost

D. Opportunity cost

Correct Answer: C. Sunk cost

Question 3

If target selling price is $500 and target profit is $125, what is target cost?

A. $375

B. $400

C. $425

D. $625

Correct Answer: A. $375

Question 4

Which quality-cost category includes warranty claims and product recalls?

A. Prevention

B. Appraisal

C. Internal failure

D. External failure

Correct Answer: D. External failure

Question 5

A supplying division has variable cost of $20 and loses external contribution of $15 when making an internal unit. What is its minimum transfer price?

A. $20

B. $15

C. $35

D. $300

Correct Answer: C. $35

Question 6

Which pricing approach begins primarily with customer-perceived benefits and willingness to pay?

A. Value-based pricing

B. Absorption pricing

C. Historical-cost pricing

D. Standard-cost pricing

Correct Answer: A. Value-based pricing

Question 7

A product generates unit contribution of $30 and uses 3 machine hours. What is contribution per constrained machine hour?

A. $10

B. $27

C. $33

D. $90

Correct Answer: A. $10

Question 8

Which costing method is primarily associated with continuous incremental reductions during production?

A. Target costing

B. Kaizen costing

C. Life-cycle costing

D. Marginal revenue costing

Correct Answer: B. Kaizen costing

Question 9

Customer profitability analysis is most directly concerned with:

A. Average industry price

B. Cost-to-serve differences among customers

C. Corporate tax rates only

D. Production volume alone

Correct Answer: B. Cost-to-serve differences among customers

Question 10

A product has life-cycle revenue of $10 million and life-cycle cost of $8.4 million. What is life-cycle profit?

A. $1.6 million

B. $18.4 million

C. $8.4 million

D. $2.6 million

Correct Answer: A. $1.6 million

Cost & Management Accountancy
Chapter 11 of 15