Business Blueprinting & The Lean Canvas

Chapter 9
Cost Structure, Capabilities, Partners and Operations

Graduate Program in Entrepreneurship
Business Blueprinting & The Lean Canvas   •   Graduate

Cost Structure, Capabilities, Partners and Operations

Introduction

A Lean Canvas becomes strategically useful only when its assumptions can be translated into an operating system. A proposed customer segment, problem, solution, channel, or revenue model implies work: designing the product, acquiring customers, delivering value, supporting users, managing suppliers, protecting quality, and learning from evidence. Each activity consumes resources and creates costs. The purpose of this chapter is to connect the strategic logic of a Lean Canvas with an executable operating blueprint.

The central managerial question is not simply, “What will the venture cost?” It is: “Which resources, capabilities, activities, and relationships must exist for the venture to deliver its value proposition repeatedly, economically, ethically, and at increasing scale?” This question requires more than listing expenses. It requires understanding cost behavior, identifying bottlenecks, distinguishing resources from capabilities, selecting partners deliberately, and designing processes that remain adaptable under uncertainty.

A cost structure is therefore both a financial model and a statement of strategic choice. A venture that promises rapid delivery may need distributed inventory and logistics capability. A regulated health-technology venture may need compliance expertise, clinical validation, and secure data infrastructure. A digital platform may have high development costs but low marginal cost per additional user, while a food manufacturer may experience substantial variable costs for every unit sold.

Learning Objectives

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

  1. Distinguish fixed, variable, semi-variable, direct, indirect, sunk, and opportunity costs.
  2. Map key resources, capabilities, activities, suppliers, and partners to Lean Canvas assumptions.
  3. Construct a basic cost structure and calculate contribution margin and break-even volume.
  4. Design scalable operating processes using capacity, bottleneck, quality, and learning principles.
  5. Evaluate outsourcing, partnership, and vertical-integration decisions.
  6. Align an operating blueprint with strategic priorities, uncertainty, governance, and ethical obligations.

1. From Lean Canvas to Operating Blueprint

The Lean Canvas is a hypothesis document. It describes a proposed relationship among customer problems, customer segments, unique value proposition, solution, channels, revenue streams, cost structure, key metrics, and unfair advantage. An operating blueprint is the more detailed translation of those hypotheses into execution. It answers five questions:

  • What must be done?
  • What must be owned, accessed, or controlled?
  • Who performs each activity?
  • In what sequence and with what standards?
  • How does the system respond when demand, quality, or assumptions change?

A useful mapping approach is to connect each Lean Canvas block to operational implications.

Lean Canvas elementOperating implication
ProblemActivities required to diagnose, prevent, or solve it
Customer segmentService levels, accessibility, compliance, and support requirements
Unique value propositionCritical capabilities and quality standards
SolutionTechnology, people, equipment, processes, and suppliers
ChannelsDistribution, sales, onboarding, and fulfillment activities
Revenue streamsBilling, collection, pricing, and revenue-recognition processes
Cost structureFixed commitments, variable drivers, and cost-control mechanisms
Key metricsOperational measures such as cycle time, defect rate, retention, and utilization
Unfair advantageAssets, relationships, knowledge, or routines difficult to copy

The operating blueprint should not be treated as a static business plan. In an uncertain venture, it is a provisional design that is tested through minimum viable operations. The founder may initially perform several roles, use manual workarounds, and outsource non-core activities. As evidence accumulates, the venture decides which processes to standardize, automate, insource, or redesign.

2. Understanding Cost Structure

2.1 Cost classification

Costs can be classified in several ways, and no single classification answers every managerial question.

Fixed costs remain broadly unchanged over a relevant range of activity during a defined period. Examples include a lease, salaried management, software subscriptions, insurance, and depreciation. “Fixed” does not mean permanent: a lease may be renegotiated, and staffing may change at a new scale.

Variable costs change with an activity driver, often units produced or customers served. Examples include payment-processing fees, packaging, sales commissions, cloud usage, and per-unit materials.

Semi-variable costs contain both fixed and variable components. A cloud contract with a monthly base fee plus usage charges is one example.

Direct costs can be traced economically to a product, service, customer, or project. Indirect costs support multiple outputs and must be allocated or managed as common costs. Allocation can be useful for planning, but an allocation is not necessarily a causal explanation of cost behavior.

Sunk costs have already been incurred and cannot be recovered through the current decision. They should not determine whether a new activity is economically justified. Opportunity cost is the value of the best alternative forgone. A founder’s unpaid time, for example, has an opportunity cost even when no cash leaves the business.

2.2 Cost drivers and activity-based thinking

A cost driver is a measurable factor that causes or strongly influences cost. Possible drivers include orders, active users, machine hours, support tickets, delivery kilometers, regulatory submissions, or data volume. A reliable cost model begins by identifying drivers rather than merely copying historical expense categories.

Activity-based thinking asks:

  1. What activity creates the cost?
  2. What causes the activity to occur?
  3. Does the activity increase proportionally, stepwise, or irregularly with demand?
  4. Can the activity be eliminated, simplified, automated, or shifted to a partner?

For example, customer support may initially be proportional to active customers. At a threshold, however, the venture may need a dedicated support employee, creating a step-fixed cost. Such behavior matters when forecasting scale.

2.3 Unit economics

Unit economics examines revenue and cost at the level of a sale, order, customer, subscription, or other economically meaningful unit. The unit must be defined carefully. For a marketplace, the relevant unit might be a completed transaction; for a subscription software company, it may be an average customer-month.

A basic contribution margin is:

CM = P − VC

where CM is contribution margin per unit, P is revenue per unit, and VC is variable cost per unit. All monetary values must use the same currency and time or transaction basis. The contribution margin ratio is:

CMR = (P − VC) ÷ P

The formulas assume that price and variable cost are reasonably stable over the relevant range and that the unit is consistently defined. They are less reliable when discounts, returns, nonlinear usage, or multiple products materially change the averages.

Break-even volume, under a single-product and constant-unit-economics assumption, is:

QBE = F ÷ (P − VC)

where Q_BE is break-even units per period and F is fixed cost per period. The denominator must be positive. If P − VC is zero or negative, additional sales do not contribute toward covering fixed costs.

Worked example

An educational software venture charges $40 per customer-month. Variable costs are $12 per customer-month, and monthly fixed costs are $28,000.

Contribution margin:

CM = $40 − $12 = $28

Break-even volume:

QBE = $28,000 ÷ $28 = 1,000 customer-months

Thus, the venture must generate 1,000 customer-months in the period to cover the stated costs. At 1,250 customer-months, operating contribution before any additional costs is:

1,250 × $28 − $28,000 = $7,000

This is not a complete profitability forecast. It excludes taxes, financing effects, changes in working capital, capacity constraints, customer acquisition costs not included in variable cost, and any step changes in fixed cost.

For a venture with multiple products, the simple formula requires modification. If the sales mix is stable, a weighted-average contribution margin can be used. If the sales mix is uncertain, scenario analysis is preferable. Managers should also distinguish accounting break-even from cash break-even: depreciation may reduce accounting profit without an immediate cash payment, while equipment purchases may require cash before appearing as an expense.

2.4 Cost structure as strategic choice

A cost structure may be cost-driven, emphasizing efficiency and low operating expense, or value-driven, accepting higher cost to deliver superior quality, customization, trust, speed, or social impact. These are not mutually exclusive categories. A premium venture still needs cost discipline, and a low-cost venture may require substantial investment in process technology.

Important strategic questions include:

  • Which costs are committed before demand is known?
  • Which costs scale with usage?
  • Which costs are reversible?
  • Which costs protect quality, safety, or compliance?
  • Which costs create learning or a defensible advantage?
  • Which costs are visible in the model but absent from the cash budget?

The last question is especially important. Poorly designed ventures may omit customer support, cybersecurity, maintenance, returns, regulatory work, data governance, or founder opportunity cost. Such omissions create an artificially attractive Lean Canvas.

3. Key Resources and Capabilities

A resource is an asset or input available to the venture. It may be tangible, financial, human, intellectual, relational, or digital. A capability is the organization’s ability to deploy resources in a coordinated way to achieve a repeatable outcome. A database is a resource; the ability to convert data into reliable, compliant, customer value is a capability.

The resource-based view of strategy argues that valuable, rare, difficult-to-imitate, and organizationally embedded resources can contribute to sustained advantage. In entrepreneurial settings, however, a resource is not automatically an advantage. A patent may be legally protected but commercially irrelevant; a talented employee may create value only when supported by appropriate processes and incentives.

A practical resource audit asks:

Resource categoryExamplesDiagnostic question
FinancialCash, credit, grants, investor capitalWhat runway and financing flexibility exist?
HumanFounders, engineers, sales staff, domain expertsWhich expertise is scarce or mission-critical?
PhysicalEquipment, facilities, inventory, vehiclesWhat capacity and maintenance are required?
IntellectualPatents, algorithms, designs, trademarks, know-howWhat is protectable and what must remain confidential?
Data and digitalDatasets, models, software, cloud infrastructureAre data lawful, accurate, secure, and usable?
RelationalCustomers, regulators, suppliers, communitiesWhich relationships reduce uncertainty or enable access?
OrganizationalRoutines, culture, governance, documentationCan performance continue beyond one founder?

Capabilities often develop through learning-by-doing. They include experimentation, customer discovery, product development, procurement, quality management, regulatory navigation, sales execution, and operational scaling. A venture should identify dynamic capabilities—the ability to sense change, seize opportunities, and reconfigure resources—because early markets and technologies are unstable.

A capability map should specify the desired outcome, inputs, owner, process, performance standard, and evidence of competence. For example, “secure customer onboarding” is stronger than “technology.” Its evidence might include identity verification accuracy, completion time, accessibility, incident rates, and audit records.

4. Key Activities and Process Architecture

Key activities are the recurring or strategically decisive actions required to create, deliver, and capture value. Typical activities include research, design, production, marketing, sales, onboarding, fulfillment, customer support, billing, compliance, partner management, and learning.

A process is a structured sequence of activities that transforms inputs into outputs for an internal or external customer. Process design should make dependencies visible. A simple service process might be:

  1. Acquire or receive a customer request.
  2. Verify eligibility and requirements.
  3. Configure or produce the solution.
  4. Deliver the solution.
  5. Confirm performance and collect payment.
  6. Provide support and capture feedback.
  7. Review data and improve the process.

At graduate level, process design should be evaluated through several dimensions:

  • Flow time: elapsed time from initiation to completion.
  • Throughput: completed units per period.
  • Capacity: maximum sustainable output under stated conditions.
  • Utilization: the proportion of available capacity being used.
  • Quality: conformance to requirements and fitness for customer use.
  • Flexibility: ability to handle variation in volume or requirements.
  • Resilience: ability to continue or recover after disruption.
  • Traceability: ability to reconstruct what happened, by whom, and when.

A bottleneck is a resource or activity that constrains total system throughput. Improving a non-bottleneck may create local efficiency without increasing system output. The Theory of Constraints therefore emphasizes identifying the constraint, exploiting it, subordinating other activities to it, elevating its capacity when justified, and repeating the analysis when the constraint moves.

Lean principles complement this logic by targeting waste: defects, overproduction, waiting, unused talent, transportation, inventory, motion, and excessive processing. Lean experimentation should not be confused with indiscriminate cost cutting. Removing a control that protects safety or privacy is not operational excellence.

For service systems, Little’s Law provides a useful relationship under stable conditions:

L = λW

where L is the average number of items in the system, λ is the average throughput rate, and W is the average time an item spends in the system. Units must be consistent; for example, customers and customers per hour produce hours. The relationship assumes a stable long-run system in which average inflow and outflow are approximately equal. If a support center processes 20 cases per hour and the average case remains open for 3 hours, the average work-in-process is 60 cases. The equation is descriptive, not a guarantee that reducing work-in-process alone will improve service.

5. Suppliers, Partnerships, and Boundary Decisions

Partners can provide access to capabilities, distribution, legitimacy, technology, capital, or risk-sharing. Common forms include strategic alliances, contract manufacturing, licensing, franchising, platform participation, joint ventures, research partnerships, and channel agreements.

A partner decision should evaluate more than price. Relevant criteria include:

  • strategic importance and substitutability;
  • quality and reliability;
  • capacity and scalability;
  • total cost, including coordination and switching costs;
  • data, intellectual-property, and cybersecurity exposure;
  • regulatory and reputational risk;
  • geographic and geopolitical concentration;
  • sustainability and labor practices;
  • contractual control and exit options.

Transaction-cost economics suggests that activities may be internalized when transactions are frequent, uncertain, asset-specific, or vulnerable to opportunism. External sourcing may be attractive when specialized suppliers achieve economies of scale or when the venture needs flexibility. The correct choice is contingent, not ideological.

A make-or-buy analysis should include relevant avoidable costs, not merely accounting allocations. If an external supplier charges $18 per unit and internal production requires $10 of materials, $4 of variable labor, and $2 of avoidable quality cost, internal relevant cost is $16 per unit. A $2 apparent saving does not justify internal production if it requires substantial new equipment, managerial attention, compliance costs, or capacity that could support a more valuable activity.

Partnership governance should define responsibilities, service levels, escalation procedures, data rights, audit rights, confidentiality, intellectual-property ownership, liability, business continuity, termination, and dispute resolution. For critical suppliers, dual sourcing, safety stock, documented alternatives, or modular design may reduce dependency risk.

6. Designing for Scale Without Premature Complexity

Scalability means that output, reach, or value can increase without costs, coordination, or quality deteriorating at the same rate. It does not mean that every process must be automated immediately. Premature scaling can lock a venture into an unvalidated process and create expensive organizational complexity.

A scalable operating blueprint normally contains:

  1. Clear process ownership. Each critical process has an accountable owner.
  2. Standard work with justified flexibility. Repeatable tasks are documented, while exceptional cases have escalation paths.
  3. Modular architecture. Products, technology, and supplier relationships can change without redesigning the entire system.
  4. Data visibility. Decisions use timely, accurate, and appropriately governed information.
  5. Capacity triggers. Hiring, equipment, or partner changes occur when leading indicators justify them.
  6. Quality controls. Defects are prevented or detected close to their source.
  7. Learning loops. Customer and operational data feed experiments and revisions.

Automation should be evaluated through total system effects. Automating a poorly understood process can accelerate errors. Before automating, the venture should clarify the decision rule, assess exception frequency, test data quality, and determine how humans review high-impact outcomes.

Technology may support workflow orchestration, demand forecasting, inventory management, robotic process automation, and AI-assisted support. AI systems introduce additional operating requirements: data provenance, model validation, monitoring for drift and bias, human oversight, explainability appropriate to the context, cybersecurity, and documented accountability. An AI feature should not be treated as a capability merely because a model has been deployed; capability depends on reliable outcomes within legal and ethical boundaries.

7. Aligning the Operating Blueprint with Metrics

Metrics should connect strategic assumptions to operational evidence. A useful hierarchy includes:

LevelIllustrative measures
Strategic outcomeRetention, contribution margin, mission impact
Customer valueResolution quality, satisfaction, time to value
Process performanceCycle time, throughput, first-pass yield, defect rate
Resource performanceCapacity utilization, employee productivity, asset uptime
Risk and governanceIncidents, audit findings, supplier concentration, privacy events
LearningExperiment velocity, validated assumptions, adoption of improvements

A metric must have a definition, owner, data source, frequency, target or decision threshold, and known limitations. Vanity metrics—such as downloads without activation or leads without conversion—can encourage harmful decisions. Metrics should be balanced so that improving speed does not destroy quality, reducing cost does not undermine safety, and increasing sales does not create unmanageable support obligations.

8. Illustrative Case: GreenBox Meal Kits

Background

GreenBox is a fictional early-stage venture offering refrigerated meal kits to urban professionals. Its Lean Canvas identifies convenience and predictable nutrition as customer problems. The proposed solution is a subscription delivered twice weekly through a combination of an online ordering system and regional courier partners.

Problem

The founders initially forecast attractive margins using ingredient cost alone. Early pilot orders reveal additional costs: insulated packaging, failed deliveries, customer support, spoilage, refunds, and food-safety documentation. Demand is also concentrated on two delivery days, creating a capacity bottleneck in packing and dispatch.

Analysis

The team defines one unit as one delivered meal kit. The average selling price is $48 per kit. Variable costs are:

  • ingredients: $19;
  • packaging: $4;
  • courier fee: $8;
  • payment processing and refunds allowance: $2.

Total variable cost is $33, producing a contribution margin of $15 per kit. Monthly fixed costs are $45,000, including kitchen rent, core salaries, insurance, software, and compliance support.

QBE = $45,000 ÷ ($48 − $33) = 3,000 kits per month

The venture’s initial target of 2,400 kits therefore does not cover fixed costs. Moreover, the packing line can process only 500 kits per peak day. With two peak days, weekly capacity is approximately 1,000 kits, or about 4,000 kits in a four-week planning month. The venture has limited room above break-even before adding capacity.

Approach and solution

GreenBox takes five actions. First, it introduces a delivery surcharge for remote zones rather than averaging all logistics costs. Second, it uses demand data to encourage Tuesday delivery through a small price incentive, smoothing the bottleneck. Third, it standardizes recipes and packaging formats to reduce picking errors. Fourth, it contracts a backup courier and documents food-safety responsibilities in the supplier agreement. Fifth, it tracks contribution margin by customer cohort and delivery zone rather than relying only on average margin.

The founders also retain manual quality checks for allergen labeling. They reject full automation until exception rates and data requirements are understood. A dashboard monitors orders, on-time delivery, temperature excursions, refunds, contribution margin, and repeat purchase.

Outcome

After the redesign, variable cost falls by $2 per kit through packaging standardization, while the surcharge improves the economics of remote deliveries. At the revised average variable cost of $31, contribution margin becomes $17. The new break-even volume is:

QBE = $45,000 ÷ ($48 − $31) ≈ 2,647 kits per month

The result is not simply a lower break-even point. The venture also has clearer capacity triggers, stronger food-safety governance, and better visibility into which customer segments are economically attractive.

Learning points

The case demonstrates that cost structure must include the complete delivery system, not only the product input. It also shows that operational redesign can improve economics without reducing customer value. Finally, scale should be pursued through constraint management, process learning, and responsible controls rather than through volume alone.

9. Challenges, Limitations, and Governance

Operating forecasts are uncertain. Demand may be seasonal, supplier prices may change, and customers may behave differently at scale. Fixed and variable classifications can change when the relevant range changes. Unit economics can also conceal acquisition costs, churn, returns, cross-subsidies, and long-term service obligations.

Managers should therefore use scenarios rather than a single forecast. At minimum, model conservative, expected, and favorable cases for volume, price, variable cost, capacity, and partner performance. Sensitivity analysis identifies which assumptions deserve early validation. Real-options thinking may favor staged commitments when uncertainty is high: lease short-term capacity, pilot a supplier, or build modular technology before making an irreversible investment.

Governance is an operating requirement. Ventures must comply with applicable tax, employment, consumer-protection, product-safety, competition, environmental, accessibility, data-protection, and sector-specific rules. Partnerships do not eliminate responsibility. A venture can remain accountable for harmful outcomes caused by a contractor, misleading claims, insecure data handling, discriminatory algorithms, unsafe working conditions, or environmentally damaging sourcing.

Ethically sound cost management distinguishes waste from necessary protection. Cutting training, maintenance, privacy controls, or worker safety may improve short-term margins while increasing legal, human, and reputational harm. The operating blueprint should document who may make high-impact decisions, what evidence is required, how incidents are reported, and how affected stakeholders can obtain remedy.

Best-Practice Checklist

Before finalizing the operating blueprint, ask:

  • Is every major Lean Canvas assumption linked to an activity, resource, capability, or partner?
  • Are cost drivers and relevant ranges explicit?
  • Are variable, fixed, sunk, opportunity, and externalized costs distinguished?
  • Is the economic unit defined consistently?
  • Have capacity and bottlenecks been measured rather than assumed?
  • Are quality, safety, privacy, and regulatory controls included in the design?
  • Are partner dependencies, exit options, and continuity plans documented?
  • Can the process be learned and improved before it is heavily automated?
  • Do metrics balance growth, economics, quality, resilience, and stakeholder impact?
  • Are commitments staged so that uncertainty is reduced before irreversible investment?

Chapter Summary

A Lean Canvas becomes executable when its strategic hypotheses are translated into an operating blueprint. Cost structure should be analyzed through cost behavior, drivers, unit economics, capacity, and strategic purpose. Fixed and variable costs support break-even analysis, but managers must recognize the assumptions and limitations of simple formulas.

Resources are assets; capabilities are repeatable abilities to deploy those assets. Key activities should be designed as processes with owners, standards, capacity, quality controls, and learning loops. Bottleneck analysis and Little’s Law help managers understand flow, while Lean principles help reduce waste without sacrificing safety or value.

Suppliers and partners should be selected according to total cost, strategic importance, capability, risk, governance, and reversibility. Scaling requires modular design, data visibility, appropriate standardization, and carefully evaluated automation. Finally, a responsible operating blueprint includes compliance, cybersecurity, privacy, sustainability, worker welfare, and accountability. The best blueprint is not the most elaborate one; it is the smallest reliable system that can deliver value, generate evidence, and evolve as assumptions are tested.

Key Terms

Cost driver: A measurable factor that causes or influences a cost.

Fixed cost: A cost that remains broadly unchanged over a relevant activity range during a specified period.

Variable cost: A cost that changes with an activity level or output volume.

Semi-variable cost: A cost containing both fixed and variable components.

Direct cost: A cost economically traceable to a specific product, service, customer, or activity.

Indirect cost: A shared cost that supports multiple outputs and is not directly traceable to one output economically.

Sunk cost: A past cost that cannot be recovered through the current decision.

Opportunity cost: The value of the best alternative forgone.

Unit economics: The analysis of revenue and cost for a defined economic unit.

Contribution margin: Revenue per unit minus variable cost per unit.

Break-even volume: The output level at which contribution equals fixed cost under stated assumptions.

Resource: An asset or input available to an organization.

Capability: The ability to deploy resources in a coordinated, repeatable way.

Key activity: An important action required to create, deliver, or capture value.

Bottleneck: A constraint that limits the throughput of an operating system.

Capacity: The maximum sustainable output under specified conditions.

Scalability: The ability to increase output or reach without proportional deterioration in cost, quality, or coordination.

Transaction cost: The cost of searching, negotiating, monitoring, coordinating, and switching in an exchange.

Operating blueprint: A structured design linking strategy to resources, activities, processes, partners, controls, and metrics.

Dynamic capability: The ability to sense change, seize opportunities, and reconfigure resources.

Review Questions

5 Short Answer Questions

  1. What is the difference between a resource and a capability?
  2. Why can fixed costs change when a venture reaches a new scale?
  3. Define contribution margin and state its managerial use.
  4. What is a bottleneck, and why should it receive priority in process improvement?
  5. Identify three criteria other than price that should be used to evaluate a supplier.

5 Long Answer Questions

  1. Explain how the cost structure of a digital platform may differ from that of a physical manufacturing venture. Discuss the strategic consequences.
  2. Describe a systematic method for translating Lean Canvas blocks into an operating blueprint.
  3. Compare outsourcing and vertical integration using transaction-cost and capability-based reasoning.
  4. Explain how process standardization, flexibility, and scalability can be balanced in an uncertain startup.
  5. Discuss why governance, privacy, safety, and sustainability should be treated as operating requirements rather than optional additions.

3 Analytical / Application Questions

  1. A venture sells a service for $75 per unit, has variable cost of $30 per unit, and monthly fixed costs of $54,000. Calculate contribution margin, contribution-margin ratio, and break-even volume. State the assumptions behind your calculation.
  2. Map the resources, capabilities, activities, and partners required to launch a subscription-based telehealth service. Identify two major operational risks and propose controls.
  3. A venture is considering a supplier that offers a lower unit price but has long lead times and no documented continuity plan. Develop a decision analysis that includes total cost, bottleneck risk, quality, switching cost, data or intellectual-property exposure, and resilience.

Multiple Choice Questions with Answers

Question 1

Which statement best distinguishes a capability from a resource?

A. A capability is always a physical asset, while a resource is always intangible.

B. A capability is the coordinated ability to deploy resources to achieve a repeatable outcome.

C. A capability is a past expense, while a resource is a future expense.

D. A capability is identical to a supplier contract.

Correct Answer: B. A capability is the coordinated ability to deploy resources to achieve a repeatable outcome.

Question 2

A venture charges $50 per unit, incurs variable cost of $20 per unit, and has fixed costs of $30,000 per month. What is its break-even volume?

A. 600 units

B. 1,000 units

C. 1,500 units

D. 2,000 units

Correct Answer: B. 1,000 units

Question 3

Which cost is most clearly a sunk cost for a current expansion decision?

A. A future delivery charge

B. A proposed equipment lease

C. Money already spent on an unrecoverable prototype

D. Additional labor required for expansion

Correct Answer: C. Money already spent on an unrecoverable prototype

Question 4

What is the primary purpose of identifying a bottleneck?

A. To improve the activity that most limits total system throughput

B. To eliminate every fixed cost immediately

C. To ensure all employees have identical workloads

D. To replace quality controls with faster processing

Correct Answer: A. To improve the activity that most limits total system throughput

Question 5

Little’s Law is represented by which relationship under stable operating conditions?

A. L = λW

B. L = λ ÷ W

C. W = Lλ

D. λ = LW

Correct Answer: A. L = λW

Question 6

Which item is an example of a semi-variable cost?

A. A fixed annual insurance premium with no usage component

B. A monthly software fee plus charges based on usage

C. A one-time sunk research expense

D. A per-unit packaging material cost only

Correct Answer: B. A monthly software fee plus charges based on usage

Question 7

Which consideration is most relevant to responsible AI-enabled operations?

A. Whether the system can be deployed without any monitoring

B. Whether data provenance, bias, security, and human oversight are addressed

C. Whether automation eliminates all human accountability

D. Whether the model has the most complex architecture available

Correct Answer: B. Whether data provenance, bias, security, and human oversight are addressed

Question 8

Why might a venture choose staged commitments under high uncertainty?

A. To make all costs irreversible immediately

B. To avoid collecting evidence before scaling

C. To preserve flexibility while learning about demand and operations

D. To guarantee that fixed costs remain zero

Correct Answer: C. To preserve flexibility while learning about demand and operations

Question 9

Which metric best measures a process-quality problem?

A. Defect rate

B. Office rent

C. Founder ownership percentage

D. Total historical investment

Correct Answer: A. Defect rate

Question 10

In a make-or-buy decision, which cost is generally most relevant?

A. Every historical cost, regardless of whether it changes

B. Avoidable costs and incremental effects of the alternative

C. Only allocated headquarters overhead

D. Only the supplier’s listed price, excluding coordination costs

Correct Answer: B. Avoidable costs and incremental effects of the alternative

Business Blueprinting & The Lean Canvas
Chapter 9 of 15