Marketing Analytics & Customer Lifetime Value

Chapter 13
Pricing, Product and Revenue Analytics

Graduate Program in Marketing Management
Marketing Analytics & Customer Lifetime Value   •   Graduate

Pricing, Product and Revenue Analytics

Introduction and Context

Pricing, product design, assortment, promotion, and revenue management are closely connected analytical decisions. A price changes not only unit margin but also demand, customer acquisition, retention, reference prices, channel conflict, and perceived quality. Similarly, a product feature affects willingness to pay, adoption, operating cost, cannibalization, and future cross-sell opportunities. Revenue analytics therefore extends beyond asking, “What price maximizes sales?” The managerial question is: Which offer, to which customer, through which channel, at what time and price, produces the greatest sustainable customer and enterprise value?

Marketing analytics provides the evidence for answering this question. It combines economic theory, experimental design, causal inference, conjoint analysis, forecasting, optimization, and customer-level data. The analyst must distinguish prediction from causation: a model may predict that customers who receive discounts buy more, while an experiment may reveal that the discount caused little incremental demand because those customers would have purchased anyway.

This chapter develops an integrated framework for pricing, product, and revenue decisions. It emphasizes managerial interpretation, assumptions, implementation, and limitations rather than treating models as automatic decision rules.

Learning Objectives

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

  1. Explain price elasticity, cross-elasticity, income effects, and their strategic implications.
  2. Estimate willingness to pay using survey, experimental, and behavioral approaches.
  3. Design and interpret conjoint studies for product and pricing decisions.
  4. Build and evaluate demand forecasts for products, categories, and customer segments.
  5. Apply revenue and profit optimization concepts to prices, promotions, capacity, and assortment.
  6. Connect pricing and product decisions to cross-sell, next-best-offer, and customer lifetime value.
  7. Assess model risk, fairness, privacy, experimentation, and governance requirements.

1. The Economic Logic of Pricing

Demand is the quantity customers are willing and able to purchase at alternative prices, holding other relevant factors constant. A demand model may be expressed as:

Q = f(P, X, Z, t)

Here, Q is quantity demanded, P is price, X represents marketing variables such as promotion and distribution, Z represents customer, competitive, and environmental conditions, and t represents time. The function is not necessarily linear. Demand can contain thresholds, saturation, seasonality, stockout effects, and interactions between price and product features.

Revenue is:

R = P × Q(P)

where R is revenue in currency units. Profit requires costs:

Π = (P − c) × Q(P) − F

where Π is contribution profit, c is variable cost per unit, and F is fixed cost over the decision period. The formula assumes one price, constant unit variable cost, and no capacity or inventory constraint. If costs vary by customer, channel, order size, or fulfillment method, the cost term must be made more specific.

Price Elasticity of Demand

Price elasticity measures the percentage response of quantity to a one-percent change in price:

εP = (∂Q/∂P) × (P/Q)

For ordinary downward-sloping demand, εP is negative. Managers often discuss its absolute value, |εP|. If |εP| > 1, demand is elastic; if |εP| < 1, demand is inelastic. Elasticity is dimensionless, which permits comparisons across products with different units.

A common local approximation is the midpoint elasticity between two observations:

εmid = [(Q2 − Q1) / ((Q1 + Q2)/2)] ÷ [(P2 − P1) / ((P1 + P2)/2)]

The midpoint method reduces dependence on whether the change is calculated from the initial or final value. It is descriptive unless price changes are plausibly exogenous or generated by a valid experiment. Observed elasticity can be biased by simultaneous changes in promotion, distribution, competitor prices, inventory, and customer composition.

For a simple constant-elasticity demand function:

Q = aP^ε

where a is a scale parameter and ε is constant. Taking logarithms gives:

ln(Q) = ln(a) + ε ln(P)

The coefficient on ln(P) is elasticity. This log-log specification is useful when proportional rather than absolute changes are substantively meaningful, but its constant-elasticity assumption may be unrealistic over a broad price range.

Elasticity and Revenue

If marginal cost is temporarily ignored, revenue rises with price when demand is inelastic and falls with price when demand is elastic. This statement applies locally and assumes the demand relationship is stable. It does not imply that a high price maximizes profit. With differentiable demand, profit maximization for a single product occurs where marginal revenue equals marginal cost:

MR = MC

Since MR = P + Q(dP/dQ), the Lerner condition can be written:

(P − MC)/P = −1/εP

This condition assumes a profit-maximizing firm, a single product or appropriately defined product interactions, reliable marginal cost, and a meaningful local elasticity. It is not a license to charge any price implied by a statistical model. Competition, regulation, fairness, long-term retention, and strategic response may make the short-run optimum inappropriate.

Cross-Price Elasticity and Substitution

Cross-price elasticity measures the response of demand for product i to the price of product j:

εij = (∂Qi/∂Pj) × (Pj/Qi)

A positive value commonly indicates substitution: a competitor’s price increase raises demand for the focal product. A negative value commonly indicates complementarity: an increase in the price of one product reduces demand for the other. Cross-elasticities inform competitive response, portfolio pricing, bundles, and cannibalization analysis.

2. Estimating Willingness to Pay

Willingness to pay (WTP) is the maximum amount a customer would exchange for a defined offer under specified conditions. It is not a fixed psychological trait. WTP depends on benefits, alternatives, urgency, budget, framing, reference price, trust, payment timing, and perceived risk.

Three broad evidence sources are useful:

Evidence sourceStrengthMain risk
Stated survey methodsEfficient for early conceptsHypothetical and strategic bias
Choice experiments and conjointSeparates feature trade-offsRequires realistic design and estimation
Observed behavior and experimentsClosest to market behaviorConfounding, sparse data, and limited support

Direct questions such as “What would you pay?” are easy to administer but often produce anchoring and hypothetical bias. Price-sensitivity meters ask respondents when a price becomes cheap, expensive, too cheap, or too expensive; these are useful for exploratory ranges but should not be treated as precise demand estimates. Incentive-compatible mechanisms, such as carefully designed auctions or real purchase experiments, can improve behavioral validity but may be expensive and context-dependent.

A practical WTP workflow is to define the customer and usage context, identify the relevant alternatives, collect both stated and behavioral evidence, estimate uncertainty, test prices experimentally, and validate outcomes using contribution rather than revenue alone. WTP distributions are generally more useful than a single average. Segment-level distributions can reveal that a high average conceals distinct value propositions.

3. Conjoint Analysis for Product and Price Decisions

Conjoint analysis estimates how respondents value combinations of attributes and levels. A product profile might include brand, battery life, delivery time, warranty, and price. Respondents choose among profiles, rate them, or rank them. Choice-based conjoint is especially appropriate when the managerial problem involves trade-offs.

A basic random-utility model is:

Uij = Vij + εij

where Uij is the utility customer i obtains from alternative j, Vij is observed utility derived from attributes, and εij is an unobserved component. A linear specification is:

Vij = β1x1ij + β2x2ij + … + βkxkij

The β coefficients represent utility weights, while x variables encode attribute levels. If price is included as a continuous variable with coefficient βP < 0, the implied marginal WTP for attribute k is:

WTPk = −βk/βP

This ratio is meaningful only when utility units and price coding are compatible, the price coefficient is negative and sufficiently stable, and the model is correctly specified. If price is represented by dummy variables, a simple coefficient ratio does not automatically provide a valid marginal WTP.

For a multinomial logit model, the probability of choosing alternative j from choice set Ci is:

Pr(j|Ci) = exp(Vij) / ∑k∈Ci exp(Vik)

The model assumes independent and identically distributed extreme-value errors, producing the independence-of-irrelevant-alternatives property. This property can be unrealistic when alternatives are close substitutes. Hierarchical Bayes, mixed logit, latent-class, and finite-mixture models can represent individual heterogeneity and correlation more flexibly, although they require stronger modeling and computational discipline.

Designing a Useful Conjoint Study

A defensible study should:

  1. Define a decision to be supported, not merely a list of interesting attributes.
  2. Include attributes customers can understand and firms can deliver.
  3. Keep the number of attributes manageable and levels realistic.
  4. Include a none or opt-out alternative when nonpurchase is possible.
  5. Represent price across a credible range and avoid implausible combinations.
  6. Randomize tasks and test comprehension.
  7. Include holdout profiles for validation.
  8. Simulate market shares under competitive and capacity conditions.

Conjoint utilities are relative within a choice task. They are not automatically psychological units or market shares. Simulation requires assumptions about the competitive set, availability, awareness, distribution, and error structure.

4. Demand Forecasting

A forecast is a conditional statement about future demand given information, assumptions, and a time horizon. It is not a promise and not necessarily a causal estimate. Forecasts support inventory, staffing, capacity, price timing, promotion planning, and financial budgets.

A useful forecasting process begins with the decision horizon and forecast unit: SKU-store-day, product-category-week, customer-month, or another level. The analyst then audits missing values, stockouts, returns, price changes, promotions, holidays, launches, and discontinued products. A sales observation during a stockout is censored demand; treating it as true zero demand can bias the forecast downward.

Time-Series Components

A series may be represented as:

yt = Tt + St + Rt

for an additive decomposition, where Tt is trend, St is seasonality, and Rt is the remainder. A multiplicative decomposition is:

yt = Tt × St × Rt

The additive form is more appropriate when seasonal variation is approximately constant in absolute units; the multiplicative form is more appropriate when seasonal variation grows with the level. Decomposition is descriptive and does not by itself establish the cause of any component.

A moving-average forecast with window m is:

Ft+1 = (1/m) × ∑i=0m−1 yt−i

Exponential smoothing updates the forecast as:

Ft+1 = αyt + (1−α)Ft

where 0 ≤ α ≤ 1. A high α responds rapidly to recent observations; a low value smooths noise more heavily. These methods are transparent baselines. They may be inadequate where price, promotion, competitor actions, or changing assortment materially drive demand.

A causal demand model can include price and marketing variables:

Qt = β0 + βP Pt + βA At + βD Dt + βC Ct + εt

Here, At may represent advertising, Dt distribution, Ct competitor conditions, and εt unobserved influences. A linear model is interpretable but can predict negative demand and may impose constant marginal effects. Log transformations, nonlinear terms, splines, or machine-learning models can improve flexibility, but interpretation and extrapolation must be controlled.

Forecast Evaluation

Use rolling-origin or time-based validation rather than random splitting when temporal order matters. Common metrics include:

MAE = (1/n) × ∑|yt − ŷt|
RMSE = √[(1/n) × ∑(yt − ŷt)2]

MAE is in the original demand units. RMSE penalizes large errors more strongly and is also in demand units. Percentage metrics can be unstable when actual demand is zero or near zero. Forecast evaluation should also assess bias, service-level consequences, stockouts, waste, and profit—not only statistical accuracy.

5. Revenue and Profit Optimization

Revenue optimization allocates scarce capacity, inventory, attention, or promotional opportunity across prices, products, customers, and time. Revenue maximization and profit maximization are different objectives. A low-price promotion may increase revenue while reducing contribution margin; a high-margin product may be less attractive if it causes substantial demand loss or cannibalizes a complementary product.

Promotion Analytics

The incremental effect of a promotion is:

Incremental
demand = Qtreated − Q_{baseline, ext{counterfactual}}

The counterfactual is what would have happened without the promotion. It cannot generally be observed for the same customer at the same time, so analysts use randomized control groups, geo experiments, matched markets, or credible causal models. A simple promotion ROI measure is:

ROI = (Incremental contribution − Promotion cost) / Promotion cost

Incremental contribution should reflect promotional price, variable cost, redemption cost, operational effects, and post-promotion demand changes. Comparing promoted sales with pre-promotion sales alone confounds seasonality, trend, and selection.

Assortment and Cannibalization

Assortment decisions balance choice, differentiation, availability, complexity, and inventory risk. A new item may generate incremental demand, shift customers from a competitor, or cannibalize existing items. The relevant quantity is not its standalone forecast but its portfolio contribution:

Portfolio contribution = ∑j (Pj − cj)Qj − fixed and incremental operating costs

The quantities Qj must be estimated after accounting for substitution among portfolio items. Conjoint simulations, market experiments, and choice models can estimate switching, but all require a credible competitive set and availability assumptions.

Capacity-Constrained Pricing

When capacity is fixed—for example, hotel rooms, airline seats, advertising inventory, or appointment slots—accepting one sale may displace another. The opportunity cost of capacity should be included in the decision. A simplified two-segment rule accepts a low-price booking only when its contribution exceeds the expected value of preserving capacity for future demand. In practice, this requires a forecast of future high-value demand, cancellation behavior, no-shows, and service constraints.

6. Cross-Sell and Next-Best-Offer Decisions

A next-best-offer system selects an action for a customer from a set of eligible products or messages. Eligibility, expected response, margin, retention, customer experience, and contact cost should all be considered. A useful expected incremental value expression is:

EIVij = pijinc × CMij − ccontact − crisk − OpportunityCostij

Here, pijinc is the incremental probability that customer i purchases because of offer j, CMij is expected contribution margin, ccontact is contact cost, and crisk represents expected complaint, churn, regulatory, or reputational cost. The superscript “inc” is crucial: a propensity to buy without treatment is not the same as treatment uplift.

Uplift modeling estimates differential treatment effects rather than purchase propensity. Customers with high natural purchase probability may be poor promotion targets because they need no persuasion. Conversely, customers with low propensity may be unreachable. The most valuable group can be persuadable customers with positive incremental response and sufficient margin.

Customer lifetime value connects immediate offer decisions to future economics. A simplified constant-retention, constant-margin model is:

CLV = (m × r) / (1 + d − r) − CAC

where m is periodic contribution margin, r is the probability of remaining active from one period to the next, d is the discount rate per period, and CAC is customer acquisition cost. This formula assumes constant margin, retention, discount rate, and no finite horizon. For variable cash flows, the more general expression is:

CLV = ∑t=1T [E(CFt) / (1+d)t] − CAC

where E(CFt) is expected net cash flow in period t and T is the analysis horizon. Cross-sell should be evaluated by incremental CLV, not by initial order value alone.

7. Worked Example: A Subscription Product Price Test

An illustrative streaming service is considering a monthly price increase from $20 to $22. In a randomized test, the treatment group exposed to $22 produces an average monthly retention-adjusted contribution of $13.20 per subscriber, while the control group at $20 produces $12.00. The contribution figures already account for variable service cost and observed retention over the test period.

The relative price change is:

∆P/P = (22 − 20)/20 = 0.10 = 10%

Suppose the observed subscriber quantity changes from 100,000 in the control-equivalent market to 94,000 under the new price. The midpoint elasticity is:

εmid = [(94,000 − 100,000)/97,000] ÷ [(22 − 20)/21]
≈ (−0.06186) ÷ 0.09524
≈ −0.65

Demand is locally inelastic in this test. Contribution rises from:

100,000 × $12.00 = $1,200,000

to:

94,000 × $13.20 = $1,240,800

The estimated increase is $40,800 per month, before implementation costs and longer-term effects. This result should not be generalized without checking treatment balance, test duration, churn lag, competitor response, acquisition effects, fairness across customer groups, and whether the tested customers represent the intended market. A price increase can be profitable in the short term but harmful if it raises future churn or damages trust.

8. Illustrative Case: FreshBox Product and Revenue Decisions

Background. FreshBox, a fictional meal-kit company, offers Standard, Family, and Premium plans. Management observes rising promotional expense, excess inventory in Premium ingredients, and declining conversion among price-sensitive prospects.

Problem. The company must decide whether to introduce a lower-priced Standard plan, redesign Premium, reduce blanket discounts, and recommend add-on desserts to existing customers. Historical data are confounded: discounts are targeted to customers who are already less likely to purchase, and Premium is often shown only in high-income postal areas.

Analysis. The analytics team first defines contribution margin after ingredients, delivery, payment fees, fulfillment, and discounts. It audits stockouts and separates acquisition, active, paused, and churned customers. A randomized price-and-message experiment tests three offers: no discount, a modest first-box incentive, and a value-framed bundle. A choice-based conjoint study tests plan size, recipe variety, delivery flexibility, organic ingredients, and price, including a no-purchase option. A hierarchical choice model estimates heterogeneous preferences, while a holdout sample tests predictive validity.

For forecasting, the team uses a baseline seasonal model and a causal model containing price, promotional exposure, local competition, holidays, and delivery capacity. Forecasts are evaluated by rolling time periods and by business consequences: contribution, waste, and service level. A portfolio simulation estimates whether Standard attracts new customers, causes Standard-to-Family switching, or prevents competitor capture.

For add-ons, the team estimates uplift rather than simply ranking customers by dessert propensity. Customers are excluded when delivery capacity is constrained or when contact frequency would violate policy. The offer score uses incremental contribution and subtracts contact, refund, complaint, and opportunity costs.

Approach and solution. The evidence supports a targeted value bundle rather than a permanent blanket discount. Standard is launched in a limited geography with inventory controls. Premium is redesigned around a clearly valued attribute—flexible delivery—rather than adding low-value features. The company sets guardrails for minimum contribution, maximum discount, customer-contact frequency, and fairness review. A test-and-learn dashboard reports treatment effects by segment, plan, channel, and tenure.

Outcome. In this illustrative case, the targeted bundle increases incremental contribution per acquired customer, while the Standard launch grows total customers but produces some Family cannibalization. Management therefore retains Standard only where competitor pressure is high and capacity is available. Add-on recommendations are limited to customers with positive estimated uplift and adequate margin.

Learning points. First, price response is contextual and must be estimated within a decision environment. Second, product innovation should be evaluated at portfolio level. Third, forecast accuracy is not sufficient if the forecast ignores stockouts and operational constraints. Fourth, next-best-offer systems should optimize incremental value and customer experience, not response probability alone.

9. Limitations, Governance, and Ethical Issues

Identification and Model Risk

Price is often endogenous: firms charge different prices because they anticipate different demand. A regression may therefore attribute demand differences to price that actually arise from targeting or market conditions. Randomized experiments, natural experiments, instrumental variables, panel methods, and structural models can help, but each requires defensible assumptions. Analysts should document identification strategy, exclusions, data lineage, sensitivity analyses, and uncertainty intervals.

Fairness and Differential Pricing

Personalized pricing can create legitimate value differences, such as cost-to-serve variation, but can also produce discriminatory outcomes based on protected or proxy characteristics. A firm should distinguish individualized offers from hidden discriminatory prices, test disparate impact, provide understandable explanations where appropriate, and establish review and appeal processes. Legal requirements vary by jurisdiction and industry; compliance review is not optional.

Privacy and Consent

Customer-level pricing and recommendation systems may use location, browsing, transaction, inferred income, or sensitive data. Data minimization, purpose limitation, access control, retention limits, consent requirements, and secure model deployment are essential. Sensitive attributes may be needed for fairness auditing, but access should be restricted and governance documented.

Dark Patterns and Consumer Welfare

Urgency claims, confusing reference prices, hidden fees, default add-ons, and difficult cancellation can increase short-term conversion while undermining informed choice. Responsible revenue management uses clear price disclosure, truthful comparisons, accessible cancellation, and appropriate treatment of vulnerable customers. Long-term trust is an economic asset and an ethical obligation.

AI and Contemporary Developments

Machine learning improves demand prediction, dynamic assortment, personalization, and scenario simulation, but predictive accuracy does not establish causal effectiveness. Generative AI can assist with feature coding, experiment documentation, and scenario generation, yet synthetic reasoning must be validated against observed data. Automated pricing should include hard constraints, monitoring for feedback loops, drift detection, human override, audit logs, and incident procedures. Reinforcement-learning pricing is especially risky when exploration affects real customers; randomized experimentation and conservative policy constraints are needed.

10. Best-Practice Implementation Framework

A robust analytics program follows these steps:

  1. Clarify the decision. Specify price, product, segment, channel, horizon, objective, and constraints.
  2. Define the economic metric. Use incremental contribution, profit, CLV, service level, or another explicit outcome.
  3. Audit the data-generating process. Record availability, targeting, stockouts, returns, promotions, and measurement changes.
  4. Build a transparent baseline. Compare sophisticated models with simple forecasts and business rules.
  5. Identify causal evidence. Prefer randomized tests when feasible; otherwise document assumptions and sensitivity.
  6. Represent heterogeneity carefully. Segment only when differences are stable, actionable, and ethically acceptable.
  7. Simulate portfolio effects. Include substitution, cannibalization, competition, capacity, and operational costs.
  8. Validate out of sample. Use temporal holdouts, calibration, sensitivity analysis, and business-impact evaluation.
  9. Deploy with guardrails. Set price floors, discount limits, inventory constraints, contact limits, and fairness checks.
  10. Monitor and learn. Track drift, treatment effects, margin, retention, complaints, and unintended consequences.

Chapter Summary

Pricing, product, and revenue analytics integrates demand theory, customer preferences, forecasting, experimentation, and optimization. Price elasticity describes proportional demand response, while cross-elasticity identifies substitution and complementarity. Profit decisions require marginal contribution and cannot rely on revenue alone. Willingness to pay is contextual and should be estimated using complementary stated, behavioral, and experimental evidence.

Conjoint analysis models trade-offs among features and price, but its results depend on realistic design, choice-set assumptions, heterogeneity treatment, and validation. Forecasting supports operational decisions, yet stockouts, promotions, and temporal structure must be handled explicitly. Revenue optimization considers capacity, inventory, assortment, promotion, cannibalization, and opportunity cost. Next-best-offer systems should maximize incremental value rather than propensity, and CLV provides a framework for evaluating future contribution.

Finally, analytics is not merely technical. Causal identification, privacy, fairness, transparent pricing, consumer welfare, model governance, and human oversight determine whether analytical decisions are reliable and legitimate.

Key Terms

Price elasticity: Percentage change in quantity demanded caused by a one-percent change in price.

Cross-price elasticity: Response of one product’s demand to another product’s price.

Willingness to pay: Maximum amount a customer would exchange for a specified offer in a specified context.

Conjoint analysis: Method for estimating preferences from evaluations or choices among product profiles.

Random utility model: Model representing observed utility plus an unobserved error component.

Choice probability: Estimated likelihood that an alternative is selected from a defined choice set.

Cannibalization: Loss of existing product demand caused by a new or expanded product.

Demand forecast: Conditional estimate of future demand over a defined horizon.

Stockout censoring: Distortion caused when observed sales are limited by unavailable inventory.

Exponential smoothing: Forecasting method that weights recent observations more heavily.

Incremental demand: Demand caused by an intervention relative to its counterfactual.

Promotion lift: Additional demand attributable to a promotion.

Contribution margin: Revenue minus costs that vary with the relevant decision.

Revenue optimization: Allocation of prices, inventory, capacity, or offers to improve an objective.

Uplift modeling: Estimation of a treatment’s incremental effect for an individual or segment.

Next-best offer: Recommended product, price, or message for a customer under eligibility constraints.

Customer lifetime value: Discounted expected future customer contribution net of relevant acquisition cost.

Price discrimination: Charging different prices or offers based on customer or transaction characteristics.

Model drift: Decline in model validity as data, behavior, or market conditions change.

Review Questions

Short Answer Questions

  1. Define price elasticity and explain why it is dimensionless.
  2. Distinguish willingness to pay from observed purchase price.
  3. What is cannibalization, and why does it matter for assortment decisions?
  4. Why should uplift modeling be preferred to simple propensity ranking for some promotions?
  5. Identify two limitations of conjoint analysis.

Long Answer Questions

  1. Explain how a firm could combine elasticity estimation, experimentation, and contribution-margin analysis to evaluate a price increase.
  2. Compare stated WTP methods, conjoint analysis, and behavioral experiments, including the main bias associated with each.
  3. Describe a demand-forecasting process for a seasonal product with frequent stockouts and promotions.
  4. Explain how assortment, capacity, substitution, and opportunity cost interact in revenue optimization.
  5. Discuss the ethical and governance requirements for personalized pricing and AI-driven next-best-offer systems.

Analytical / Application Questions

  1. A product’s price rises from $50 to $55 and quantity falls from 10,000 to 9,200. Calculate midpoint price elasticity and interpret the result.
  2. A promotion generates 2,000 incremental units at a contribution of $8 per unit and costs $9,000 to implement. Calculate promotion ROI and explain what additional evidence is needed before scaling it.
  3. A retailer launches a premium SKU expected to sell 5,000 units, but 1,500 units are forecast to come from an existing SKU with a contribution margin of $12. The premium SKU contributes $18 per unit and has $20,000 in incremental fixed cost. Calculate the approximate incremental contribution before fixed cost and assess whether the launch clears the fixed cost, ignoring other effects.

Multiple Choice Questions with Answers

Question 1

If price elasticity is −0.4, demand is best described as:

A. Elastic

B. Unit elastic

C. Inelastic

D. Perfectly elastic

Correct Answer: C. Inelastic

Question 2

Which condition is required for the simple Lerner pricing relationship to be used as a local profit rule?

A. Demand must be perfectly inelastic

B. A reliable marginal cost and local elasticity must be available

C. Revenue must equal fixed cost

D. The product must have no competitors

Correct Answer: B. A reliable marginal cost and local elasticity must be available

Question 3

In a conjoint utility model, a negative price coefficient generally indicates that:

A. Higher price increases utility

B. Price has no role in choice

C. Higher price reduces utility

D. All respondents have identical preferences

Correct Answer: C. Higher price reduces utility

Question 4

What is the main purpose of including a no-purchase option in a choice experiment?

A. To force respondents to choose the cheapest product

B. To represent nonpurchase when it is realistic

C. To eliminate price effects

D. To guarantee market-share accuracy

Correct Answer: B. To represent nonpurchase when it is realistic

Question 5

Which observation is most likely to represent censored demand?

A. Sales during a fully stocked week

B. Sales after a successful advertisement

C. Zero sales while the product was unavailable

D. Sales from a randomized control group

Correct Answer: C. Zero sales while the product was unavailable

Question 6

For the midpoint elasticity formula, a price increase from $20 to $22 and quantity decline from 100 to 94 gives an elasticity closest to:

A. −0.65

B. −1.05

C. 0.65

D. −2.40

Correct Answer: A. −0.65

Question 7

Incremental promotion demand is defined relative to:

A. The highest historical sales

B. The counterfactual outcome without the promotion

C. The competitor’s total sales

D. The firm’s fixed costs

Correct Answer: B. The counterfactual outcome without the promotion

Question 8

Why can a high purchase-propensity customer be a poor promotion target?

A. The customer may already purchase without treatment

B. The customer cannot be measured

C. The customer always has negative margin

D. Propensity models measure price elasticity exactly

Correct Answer: A. The customer may already purchase without treatment

Question 9

In the simplified CLV formula, the retention probability r represents:

A. The discount rate

B. The acquisition cost

C. The probability of remaining active between periods

D. The product’s retail price

Correct Answer: C. The probability of remaining active between periods

Question 10

Which practice is most appropriate for evaluating a time-series forecast?

A. Randomly shuffle all observations before splitting

B. Use rolling-origin or time-based validation

C. Evaluate only on the training data

D. Exclude periods with stockouts without investigation

Correct Answer: B. Use rolling-origin or time-based validation

Marketing Analytics & Customer Lifetime Value
Chapter 13 of 15