Cloud Architecture & Virtualization

Chapter 14
Enterprise Cloud Strategy and Operating Models

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Enterprise Cloud Strategy and Operating Models

Introduction

Cloud adoption is no longer primarily a technology migration exercise. It is an enterprise transformation involving business capabilities, sourcing, governance, operating structures, financial accountability, skills, leadership and risk management. An organization may technically move workloads to a public cloud and still fail to obtain strategic value if decision rights are unclear, costs are uncontrolled, security is inconsistent or teams lack the skills to operate differently.

An enterprise cloud strategy therefore answers five questions:

  1. What business outcomes should cloud enable?
  2. Which capabilities, applications and data should move, modernize or remain elsewhere?
  3. How should the organization govern, source and operate cloud services?
  4. What commercial and technical arrangements limit unacceptable dependence on suppliers?
  5. What leadership, skills and organizational changes are required for sustainable value?

This chapter examines these questions through centralized, federated and cloud-center-of-excellence operating models. It also addresses vendor selection, contracts, interoperability, lock-in, financial management, organizational readiness and responsible governance.

Learning Objectives

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

  • formulate a cloud strategy aligned with business capabilities and digital-transformation goals;
  • distinguish centralized, federated and cloud-center-of-excellence operating models;
  • evaluate cloud sourcing options, suppliers and contractual provisions;
  • analyze technical, commercial and organizational forms of vendor lock-in;
  • design governance for security, architecture, compliance, cost and service quality;
  • assess skills, leadership and readiness for enterprise cloud adoption; and
  • recommend an operating model using explicit criteria and evidence.

1. Cloud Strategy as a Business Capability Strategy

A cloud strategy is a set of deliberate choices about how cloud resources and practices will support enterprise objectives. It is not equivalent to a provider-selection document or a migration schedule. A sound strategy begins with the enterprise strategy and operating environment.

1.1 From business outcomes to cloud capabilities

The chain of reasoning should be:

Business objective → required business capability → information and process needs → technology capability → cloud decision → measurable outcome.

For example, a retailer seeking faster product experimentation may require capabilities in digital product management, automated testing, elastic analytics and continuous delivery. Cloud can support these capabilities through managed platforms, infrastructure automation and on-demand environments. The cloud decision is justified by improved experimentation and time to market, not merely by replacing a data-centre server.

Important business capabilities commonly affected by cloud include:

  • digital product development;
  • customer data and analytics;
  • supply-chain planning;
  • collaboration and workforce mobility;
  • business continuity and disaster recovery;
  • cybersecurity monitoring;
  • high-performance or episodic computing; and
  • global service delivery.

A capability-based view prevents an organization from treating all applications alike. A stable, highly regulated core banking system may require a different treatment from a customer-facing analytics platform, even when both run in the same enterprise.

1.2 Strategic cloud choices

A strategy normally makes choices concerning:

  • deployment: public, private, hybrid or community cloud;
  • service abstraction: infrastructure, platform, software or managed services;
  • portfolio treatment: retain, retire, rehost, replatform, refactor, repurchase or rebuild;
  • location: region, jurisdiction, edge or on-premises environment;
  • control: enterprise standards, business-unit autonomy or a negotiated combination;
  • economics: capital investment, consumption-based spending and product-level accountability; and
  • risk posture: acceptable exposure to concentration, outages, data transfer and supplier dependence.

These choices should be recorded as principles and decision rules. A principle such as “use managed services where they materially improve reliability and speed without violating regulatory requirements” is more useful than an unconditional rule that every workload must use one provider.

2. A Framework for Formulating Cloud Strategy

A practical formulation process has six stages.

Stage 1: Establish strategic intent

Define the transformation outcomes, time horizon, risk appetite and constraints. Outcomes should be measurable, such as reduced release lead time, improved recovery capability, increased digital-channel availability or lower unit cost per transaction.

Stage 2: Assess the current state

Inventory applications, data, integrations, contracts, infrastructure, skills, compliance obligations and operating costs. The inventory should identify dependencies rather than merely list servers. Application criticality, data sensitivity, latency, resilience requirements and licensing restrictions are especially important.

Stage 3: Segment the portfolio

Useful segmentation dimensions include business criticality, change rate, regulatory sensitivity, technical complexity, data gravity and economic potential. A simple decision matrix can classify workloads as:

Workload characteristicLikely strategic treatment
Commodity, low sensitivity, variable demandPublic cloud or SaaS
Differentiating, rapidly changingCloud-native modernization
Highly regulated or latency-sensitiveHybrid, private or jurisdiction-specific design
Obsolete and low-valueRetire or replace
Stable but costly to relocateRetain temporarily with a review date

Segmentation is not a permanent label. It should be reviewed as regulation, provider services, application architecture and business priorities change.

Stage 4: Define the target operating model

Specify decision rights, team responsibilities, service ownership, funding, controls, escalation paths and performance measures. The target model must cover both platform operations and product delivery.

Stage 5: Build a transition roadmap

Sequence foundational work before large-scale migration. Common foundations include identity, network connectivity, landing zones, logging, security monitoring, policy automation, service catalogues, financial tagging and skills development. Migration waves should be selected for learning value as well as business value.

Stage 6: Measure and adapt

A strategy requires feedback. Useful measures include deployment frequency, lead time, availability, recovery time, security findings, policy compliance, cloud unit cost, forecast accuracy, customer outcomes and employee capability. Metrics should not reward migration volume alone.

3. Enterprise Cloud Operating Models

An operating model defines how people, processes, technology and governance work together. Three broad models are common. In practice, organizations often use a hybrid of them.

3.1 Centralized model

A central cloud or infrastructure team owns most platform decisions, supplier relationships, standards, security controls and operational services. Business units consume approved services.

Strengths include consistent controls, bargaining power, consolidated expertise, easier policy enforcement and reduced duplication. This model is attractive where regulation, operational risk or limited skills require strong coordination.

Weaknesses include slower local decision-making, possible distance from product needs, bottlenecks and a tendency for the central team to become a ticket-based utility. If the team controls budgets without accountability for business outcomes, it may optimize technical utilization rather than value.

3.2 Federated model

Business units or product domains retain substantial authority and operating capability while adhering to enterprise-wide guardrails. Each unit may select services, manage workloads and fund consumption within agreed boundaries.

Strengths include speed, domain knowledge, product ownership and experimentation. Weaknesses include duplicated tools, inconsistent security, fragmented contracts, uneven skills and difficulty aggregating demand.

Federation works best when enterprise policy is explicit, interfaces are standardized and local teams are genuinely capable. Autonomy without accountability is not federation; it is fragmentation.

3.3 Cloud Center of Excellence model

A Cloud Center of Excellence (CCoE) is a cross-functional enabling capability rather than simply a central operations department. It typically includes architecture, security, finance, procurement, legal, compliance, platform engineering, operations and representatives from business products.

The CCoE develops reusable patterns, reference architectures, guardrails, training, migration methods, financial practices and communities of practice. Product teams remain responsible for business outcomes and day-to-day application ownership.

A mature CCoE evolves through stages:

  1. Advisory: publishes principles and guidance.
  2. Enablement: provides templates, landing zones and automation.
  3. Guardrail: enforces non-negotiable controls through policy and engineering.
  4. Optimization: improves platforms, economics, resilience and organizational learning.

The CCoE model combines central expertise with distributed delivery, but it can fail if it becomes an approval committee. Its success depends on automation, service orientation and clear accountability.

Enterprise cloud operating models CentralizedFederatedCCoE-enabled Enterprise team Business consumers Domain ADomain BShared guardrails CCoEReusable platformProduct teams High consistencyLower autonomyHigh autonomyRequires disciplineEnablement plus accountability
Comparison of centralized, federated and cloud center of excellence operating models
Figure: Comparison of centralized, federated and cloud center of excellence operating models

Figure: Conceptual comparison of three enterprise cloud operating models.

3.4 Selecting an operating model

Selection should be evidence-based. Relevant criteria include regulatory uniformity, enterprise size, product diversity, skills distribution, operational criticality, pace of change and tolerance for duplication. A useful evaluation table is:

CriterionCentralizedFederatedCCoE-enabled
Consistency of controlsHighVariableHigh through guardrails
Local autonomyLowHighMedium to high
Economies of scaleHighVariableHigh for shared patterns
Speed of product decisionsMedium to lowHighHigh when automated
Coordination requirementMediumHighHigh initially

The ratings are qualitative and should be adapted to the enterprise. No model eliminates governance; each relocates governance and accountability.

4. Governance and Decision Rights

Cloud governance is the system by which authority, accountability and control are exercised. It should distinguish non-negotiable controls from areas where teams may choose.

4.1 Governance domains

  • Architecture: approved patterns, integration, resilience and technical debt.
  • Security: identity, least privilege, encryption, vulnerability management and incident response.
  • Data: classification, residency, retention, lineage, quality and access.
  • Financial management: budgets, tagging, forecasts, unit economics and optimization.
  • Service management: availability, incident, change, continuity and supplier performance.
  • Compliance: evidence, auditability, regulatory mapping and exception management.
  • People: skills, role definitions, training and communities of practice.

A control is effective when it is proportionate, testable and preferably automated. For example, a policy that prohibits public storage of sensitive data is stronger when implemented through preventive configuration rules and continuous detection rather than a document alone.

4.2 Accountability and the shared-responsibility principle

Cloud providers are responsible for aspects of the underlying service, but customers remain responsible for configuration, identities, data, applications and appropriate use. The exact boundary depends on the service model: SaaS generally shifts more operational responsibility to the provider than infrastructure service, but it does not remove customer responsibility for access, data governance or regulatory obligations.

Responsibility should be expressed in a service-specific matrix. Ambiguous statements such as “the provider handles security” are unsafe.

5. Sourcing and Vendor Selection

Sourcing is a strategic decision about capabilities, control and relationships, not only price. Options include a single strategic provider, a multi-provider portfolio, managed service providers, internal platforms, SaaS procurement and selective co-location or private infrastructure.

5.1 Evaluation dimensions

A balanced request for proposal should assess:

  • functional and technical fit;
  • security architecture and certifications;
  • resilience, service continuity and incident history;
  • data location and legal jurisdiction;
  • interoperability, portability and standards support;
  • service-management maturity and support model;
  • pricing transparency and consumption controls;
  • ecosystem, skills availability and implementation partners;
  • sustainability and energy reporting; and
  • financial viability and strategic alignment.

Price should be evaluated as a total cost of ownership (TCO), not as an isolated unit rate. A simple annual TCO model is:

TCOannual = Ccompute + Cstorage + Cnetwork + Clicenses + Coperations + Cmigration + Crisk

Here, each C represents an annualized cost in the organization’s currency. Cmigration may be amortized over an agreed analysis period, while Crisk represents an explicitly estimated or scenario-based risk cost. The equation is a decision model, not an accounting identity; assumptions must be documented and double counting avoided.

For comparing alternatives over several years, discounted cash flow may be used:

NPV = ∑t=0n \frac{Bt - Ct}{(1+r)t}

Bt is benefit in year t, Ct is cost in year t, r is the discount rate per period, and n is the number of periods. The model assumes cash flows can be estimated and that the chosen rate is appropriate. Benefits such as agility should not be presented as precise cash savings unless a credible valuation method exists.

5.2 Contractual provisions

Important contract topics include:

  • service-level objectives and service-level agreements;
  • service credits, remedies and chronic-failure termination rights;
  • data ownership, access, return and secure deletion;
  • audit rights and independent assurance evidence;
  • breach notification and incident cooperation;
  • subcontractor disclosure and flow-down obligations;
  • data residency and cross-border transfer mechanisms;
  • price-change rules, minimum commitments and usage bands;
  • support response, escalation and end-of-life notification;
  • exit assistance, migration formats and transition periods; and
  • liability, indemnity, insurance and business-continuity obligations.

A service-level agreement should define measurement method, exclusions, maintenance treatment, reporting, remedies and the relationship between component-level and end-to-end service performance. A provider guarantee for virtual-machine availability does not automatically guarantee application availability.

6. Lock-in, Portability and Interoperability

Vendor lock-in is dependence that makes changing supplier technically, financially, legally or operationally difficult. It has several forms:

  • technical lock-in: proprietary APIs, databases, identity systems or event formats;
  • data lock-in: large data volumes, egress charges or difficult export formats;
  • skills lock-in: scarce expertise specific to one platform;
  • commercial lock-in: discounts tied to long commitments or minimum spend;
  • process lock-in: operating practices built around one provider; and
  • ecosystem lock-in: dependence on partners, marketplaces or specialized tooling.

Lock-in is not always irrational. A proprietary managed service may produce substantial business value. The strategic question is whether the value exceeds the switching cost and whether the dependence is understood and governed.

Portability is the ability to move workloads or data; interoperability is the ability of different systems to work together. They are related but distinct. Open protocols, container images, infrastructure-as-code, portable data formats, API management, decoupled architectures and tested export procedures can reduce dependence. They cannot eliminate all switching cost, especially for highly managed analytical or AI services.

A portability plan should identify:

  1. critical workloads and data;
  2. target exit scenarios and acceptable transition time;
  3. export formats and required metadata;
  4. replacement services and skills;
  5. contractual assistance and cost; and
  6. periodic test arrangements.

Multi-cloud is not automatically a lock-in solution. It can increase complexity, duplicated controls, network cost and skills requirements. A deliberate “best fit with exit controls” strategy is often more effective than distributing every workload across providers.

7. Financial Operating Model and Accountability

Cloud changes cost behavior from periodic infrastructure investment toward variable consumption. This increases flexibility but can also create uncontrolled spend. FinOps practices connect engineering, finance and business teams through shared accountability.

Core practices include ownership tags, budgets, forecasts, anomaly detection, rightsizing, workload scheduling, commitment management and unit-cost measurement. Teams should understand cost per customer, transaction, claim, report or product release where meaningful.

Cost optimization must not undermine reliability, security or developer productivity. For example, disabling redundancy may lower a monthly bill while increasing expected outage impact. A balanced optimization decision considers total value and risk.

8. Skills, Leadership and Organizational Readiness

Cloud transformation requires changes in skills and identity, not just training courses. Important capabilities include cloud architecture, platform engineering, automation, cybersecurity, data engineering, reliability engineering, product management, financial analysis, procurement and vendor management.

8.1 Readiness dimensions

DimensionReadiness evidence
LeadershipNamed sponsor, aligned outcomes and decision authority
StrategyApproved principles, portfolio priorities and funding
PeopleRole clarity, skills plan and learning time
ProcessAgile delivery, change practices and incident learning
TechnologyIdentity, connectivity, landing zones and observability
GovernanceRisk controls, policy automation and exception process
FinanceTagging, budgets, forecasting and unit economics
CultureCollaboration, experimentation and blameless learning

Leadership must resolve conflicts between speed and control, enterprise standards and local autonomy, and short-term migration pressure and long-term modernization. Senior leaders should own outcomes and remove organizational barriers; they should not attempt to approve every technical decision.

A useful readiness assessment identifies capability gaps, impact, urgency, owner and evidence. Maturity scores without evidence can create false confidence.

9. Illustrative Case: Meridian Health Services

This is a fictional illustrative case. Meridian Health Services operates hospitals, clinics and a patient portal across three jurisdictions. Its on-premises infrastructure has aging hardware, slow environment provisioning and inconsistent monitoring. Business units independently purchase cloud services, creating duplicated contracts and uncertain data flows. The executive objective is to improve digital access and analytics while preserving patient confidentiality and clinical continuity.

Problem

A purely centralized model would improve control but could slow clinical-product development. A fully federated model would preserve speed but increase the risk of inconsistent identity, logging and data-residency controls. Meridian also faces specialized skills shortages and must retain exit options for critical clinical data.

Analysis

The portfolio assessment identifies:

  • patient-facing applications with high availability and rapid change;
  • regulated clinical records requiring strict access, retention and residency controls;
  • analytics workloads with variable demand; and
  • legacy clinical systems whose replacement is not yet economically justified.

The organization’s critical capabilities are secure identity, resilient integration, data governance, analytics and digital product delivery—not simply cloud hosting.

Approach

Meridian adopts a CCoE-enabled federated model. The CCoE includes security, privacy, procurement, finance, architecture, platform engineering and clinical representatives. It provides:

  • standardized landing zones and identity controls;
  • approved regional patterns for sensitive data;
  • centralized security monitoring and audit evidence;
  • reusable integration and observability services;
  • product-team budgets with mandatory cost ownership;
  • a provider-selection framework and contract checklist; and
  • quarterly portability tests for critical data and applications.

Product teams own outcomes and application reliability. The CCoE does not approve ordinary changes manually; automated controls block prohibited configurations and route exceptions to accountable risk owners.

Meridian selects two strategic providers for different capability needs but avoids indiscriminate duplication. Contracts require data export, incident cooperation, deletion evidence, subcontractor transparency and exit assistance. Legacy systems remain temporarily on premises with explicit review dates.

Outcome

After the first year, provisioning time falls substantially, security evidence becomes more consistent and product teams release more frequently. Costs initially rise because of parallel environments and training, then stabilize as tagging, rightsizing and workload scheduling mature. Meridian does not claim that multi-provider architecture eliminated lock-in; instead, it documents where proprietary services create value and where portability is mandatory.

Learning points

The case demonstrates that cloud strategy should begin with capabilities and risk, not provider enthusiasm. A CCoE is effective when it enables teams through automation. Federation requires enterprise guardrails, while portability must be tested rather than promised. Finally, transition costs and temporary duplication are legitimate investments and should be distinguished from uncontrolled waste.

10. Challenges, Ethics and Contemporary Developments

Cloud strategies face uncertainty from changing prices, provider outages, geopolitical restrictions, software licensing, cyber threats and rapidly evolving managed services. Forecasts may be inaccurate because consumption is difficult to predict. Benchmark comparisons can also mislead when workloads, resilience requirements and support levels differ.

Ethically, organizations must protect personal data, avoid discriminatory analytics, explain automated decisions where appropriate and preserve equitable access to digital services. Cloud procurement should examine supply-chain labor practices, environmental reporting and concentration risk. Data sovereignty is not merely a technical location problem; it includes legal access, subcontractors and applicable jurisdiction.

AI services introduce additional concerns: model and data lock-in, uncertain training-data provenance, prompt and output confidentiality, model drift, explainability and variable inference cost. An enterprise AI-cloud strategy should require data classification, human accountability, evaluation, logging and an exit or substitution plan for critical use cases.

Contemporary practice is moving toward platform engineering, policy-as-code, internal developer platforms, confidential computing, sovereign-cloud arrangements, FinOps, sustainability engineering and resilience testing. These developments reinforce a central principle: cloud operating models should be treated as evolving socio-technical systems, not fixed organizational charts.

Best-Practice Principles

  1. Link every major cloud decision to a business capability and measurable outcome.
  2. Segment workloads rather than impose a universal migration rule.
  3. Separate non-negotiable controls from team-level design freedom.
  4. Make product teams accountable for reliability, security and cost.
  5. Use a CCoE to enable and automate, not to create approval queues.
  6. Evaluate suppliers using resilience, portability, jurisdiction and support as well as price.
  7. Record technical, commercial and skills-related lock-in explicitly.
  8. Put exit rights, data access and transition assistance in contracts.
  9. Build skills through real delivery, communities and role-based learning.
  10. Reassess strategy using evidence from service, financial and business outcomes.

Chapter Summary

Enterprise cloud strategy is a business and organizational discipline supported by technology. It translates transformation goals into capabilities, portfolio choices, governance arrangements and measurable outcomes. Centralized models maximize consistency and scale; federated models maximize domain autonomy; and CCoE-enabled models combine shared expertise and guardrails with distributed product ownership. Each model has risks and should be selected according to regulation, skills, product diversity, criticality and desired speed.

Sourcing decisions require analysis of capability fit, resilience, jurisdiction, interoperability, total cost and contractual risk. Lock-in may be technical, data-related, commercial, skills-based or procedural. It should be governed rather than simplistically rejected. Effective contracts address service measurement, security, data access, incident response, price, liability and exit assistance.

Sustainable cloud value depends on FinOps, platform engineering, security, leadership, skills and organizational readiness. Governance is strongest when accountability is clear and controls are automated. Finally, cloud strategy must remain adaptive as providers, regulations, architectures and AI capabilities evolve.

Key Terms

Cloud strategy: An enterprise plan for using cloud capabilities to achieve business outcomes.

Business capability: An organizational ability to perform a business function and create value.

Operating model: The arrangement of people, processes, technology and decision rights used to deliver services.

Centralized model: An operating model in which a central team controls most cloud decisions and services.

Federated model: An operating model in which domains retain autonomy within enterprise guardrails.

Cloud Center of Excellence: A cross-functional capability that enables, standardizes and governs cloud adoption.

Landing zone: A governed foundational cloud environment containing identity, networking, security and policy controls.

Cloud governance: The system of authority, accountability, policies and controls for cloud use.

Shared responsibility: The division of security and operational duties between provider and customer.

Total cost of ownership: The complete cost of acquiring, operating, supporting and exiting a solution.

FinOps: A collaborative discipline connecting engineering, finance and business accountability for cloud economics.

Vendor lock-in: Dependence that makes changing a supplier difficult or costly.

Portability: The ability to move data or workloads between environments.

Interoperability: The ability of distinct systems to exchange and use information effectively.

Service-level agreement: A contractual commitment defining service performance and remedies.

Data residency: The geographic location in which data is stored or processed.

Policy-as-code: Machine-enforceable policies implemented through software and automation.

Organizational readiness: The extent to which leadership, skills, processes, technology and culture support change.

Unit economics: Costs or benefits measured per business unit such as transaction, customer or claim.

Review Questions

Short Answer Questions

  1. Why should cloud strategy begin with business capabilities rather than infrastructure?
  2. State two strengths and two weaknesses of a centralized cloud operating model.
  3. What is the difference between portability and interoperability?
  4. Identify four important areas that should be addressed in a cloud contract.
  5. Why is a Cloud Center of Excellence more than a central operations team?

Long Answer Questions

  1. Compare centralized, federated and CCoE-enabled operating models and recommend conditions under which each is appropriate.
  2. Explain a capability-based process for formulating an enterprise cloud strategy.
  3. Discuss technical, commercial, data and skills-related forms of vendor lock-in and methods for managing them.
  4. Analyze how governance, FinOps and shared responsibility affect cloud outcomes.
  5. Design an organizational-readiness framework for an enterprise beginning a regulated cloud transformation.

Analytical / Application Questions

  1. A multinational bank wants rapid digital-product delivery but has strict data-residency rules and uneven cloud skills. Recommend an operating model and justify the decision using at least five criteria.
  2. Two providers offer similar compute prices, but one has proprietary analytics, higher egress charges and stronger regional support. Construct a supplier-evaluation approach that considers TCO, lock-in, resilience and strategic value.
  3. A product team reduces redundancy to meet its cloud budget, causing increased outage risk. Analyze the governance failure and propose a decision-rights, measurement and accountability model that balances cost with reliability.

Multiple Choice Questions with Answers

Question 1

Which statement best describes a business-capability approach to cloud strategy?

A. It requires every application to move to a public cloud.

B. It links cloud choices to the organizational abilities needed to achieve business outcomes.

C. It selects a provider before examining business requirements.

D. It measures success mainly by the number of migrated servers.

Correct Answer: B. It links cloud choices to the organizational abilities needed to achieve business outcomes.

Question 2

Which operating model generally provides the greatest local autonomy to business domains?

A. Centralized

B. Single-provider

C. Federated

D. Fully outsourced

Correct Answer: C. Federated

Question 3

What is a primary purpose of a Cloud Center of Excellence?

A. To approve every individual developer change manually

B. To eliminate all business-unit responsibility

C. To provide reusable patterns, enablement and guardrails

D. To guarantee that no proprietary service is ever used

Correct Answer: C. To provide reusable patterns, enablement and guardrails

Question 4

Which item is most directly related to data lock-in?

A. A shortage of product managers

B. Difficulty exporting large datasets in usable formats

C. A provider’s incident-response hotline

D. A standardized container image

Correct Answer: B. Difficulty exporting large datasets in usable formats

Question 5

In the annual TCO model, which cost represents supplier transition or initial migration effort when annualized?

A. C_compute

B. C_licenses

C. C_migration

D. C_storage

Correct Answer: C. C_migration

Question 6

Which contractual provision most directly supports an organization’s exit strategy?

A. A marketing alliance clause

B. Data export, deletion and transition-assistance terms

C. A restriction on internal training

D. A requirement to use one development language

Correct Answer: B. Data export, deletion and transition-assistance terms

Question 7

Why is multi-cloud not automatically a solution to vendor lock-in?

A. It always prevents the use of managed services.

B. It can add complexity, duplicated controls, network cost and skills requirements.

C. It makes data governance unnecessary.

D. It guarantees identical service behavior across providers.

Correct Answer: B. It can add complexity, duplicated controls, network cost and skills requirements.

Question 8

Which practice is most consistent with effective FinOps?

A. Assigning no cost ownership to product teams

B. Optimizing cost without considering reliability

C. Using tagging, forecasting and unit-cost measurement collaboratively

D. Treating cloud expenditure as unrelated to business activity

Correct Answer: C. Using tagging, forecasting and unit-cost measurement collaboratively

Question 9

Under the shared-responsibility principle, which responsibility normally remains with the customer?

A. Manufacturing the provider’s physical servers

B. Configuring identities and controlling access to customer data

C. Maintaining the provider’s building power supply

D. Repairing provider-owned storage hardware

Correct Answer: B. Configuring identities and controlling access to customer data

Question 10

Which readiness dimension concerns a named sponsor and authority to resolve enterprise conflicts?

A. Leadership

B. Data residency

C. Portability

D. Storage elasticity

Correct Answer: A. Leadership

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