Healthcare Marketing & Services Marketing

Chapter 12
Marketing Technology, Digital Transformation and AI

Post Graduate Program in Health Care Management
Healthcare Marketing & Services Marketing   •   Post Graduate

Marketing Technology, Digital Transformation and AI

Introduction and Context

Healthcare marketing has moved from largely informational communication toward digitally enabled relationship management, service design and continuous engagement. Patients now search for symptoms and providers online, compare waiting times and reviews, schedule appointments through mobile interfaces, consult clinicians remotely, receive automated reminders and expect communications that are relevant to their circumstances. At the same time, healthcare organizations collect data from electronic health records, patient portals, telehealth platforms, websites, call centres, social media, wearable devices and payer systems.

This environment creates strategic opportunity but also unusual responsibility. In most industries, an inaccurate recommendation may waste money or time. In healthcare, a poorly designed message, biased model, insecure portal or misleading chatbot can affect access, diagnosis, treatment, trust and safety. Marketing technology must therefore be evaluated not only by conversion or revenue, but also by clinical appropriateness, equity, privacy, accessibility, continuity of care and patient welfare.

Digital transformation is broader than installing software. It is an organizational redesign in which technology, data, processes, workforce capabilities and governance are aligned to improve patient and stakeholder value. Artificial intelligence (AI) may support segmentation, forecasting, service personalization, conversational assistance and operational decision-making, but it does not remove the need for professional judgment or institutional accountability.

Learning Objectives

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

  1. Distinguish marketing technology, digital transformation, automation, analytics and AI.
  2. Assess customer relationship management (CRM), marketing automation, patient portals and telehealth as components of a healthcare service system.
  3. Explain why interoperability, data quality and identity management determine the value of personalization.
  4. Compare predictive AI, generative AI and conventional analytics in healthcare marketing.
  5. Design a balanced measurement framework for digital campaigns and patient engagement.
  6. Identify algorithmic bias, explainability, cybersecurity, privacy and regulatory risks.
  7. Recommend governance arrangements that preserve responsible human oversight.

1. From Marketing Technology to Digital Transformation

Marketing technology, often called martech, refers to the tools used to plan, execute, measure and improve marketing and relationship activities. Examples include CRM platforms, content-management systems, email and SMS tools, campaign-management software, consent-management platforms, web analytics, customer-data platforms and social listening systems.

A useful distinction is:

ConceptMain meaningHealthcare example
DigitizationConverting analogue information into digital formScanning paper referral records
DigitalizationUsing digital information to improve an existing processOnline appointment booking
Digital transformationRedesigning the organization and service model around digital capabilitiesIntegrated omnichannel access, virtual care and data-enabled population engagement
AutomationSoftware performs a repeatable task with limited human interventionAppointment reminders
AnalyticsExamination of data to describe, explain or predictIdentifying likely appointment no-shows
Artificial intelligenceComputational systems that perform tasks associated with learning, reasoning, language or perceptionA model predicting service demand or a generative assistant drafting patient education

Transformation should begin with a patient or organizational problem, not with a fashionable technology. A portal that reproduces a confusing paper form is digitalization without meaningful transformation. By contrast, a redesigned access pathway may combine online scheduling, identity verification, triage, language support, telehealth and follow-up while preserving telephone and in-person alternatives.

A service-dominant view of healthcare emphasizes value co-creation. Value is not produced solely by the hospital or clinic; it emerges through interactions among patients, caregivers, clinicians, payers, technology providers and communities. Digital tools can improve those interactions, but they can also shift work to patients, intensify surveillance or exclude people with limited digital access. Consequently, patient experience must be assessed across the entire service journey rather than at a single digital touchpoint.

2. CRM and Marketing Automation in Healthcare

2.1 Healthcare CRM

A healthcare CRM system organizes information and interactions relating to patients, referring professionals, employers, donors, members or other stakeholders. Its functions commonly include identity resolution, interaction history, segmentation, communication preferences, referral management, service recovery and campaign measurement.

A CRM is not automatically a single “360-degree view” of the patient. That claim is valid only when the organization has lawful data access, accurate identity matching, clear purpose limitations, reliable integration and governance over who may see which information. A patient’s clinical record and marketing profile may need to remain logically separated even when selected data are exchanged through controlled interfaces.

CRM value depends on four conditions:

  • Data quality: records are complete, current, valid and consistently coded.
  • Identity resolution: records belonging to the same individual are matched without unsafe duplication or conflation.
  • Consent and preference management: the organization can demonstrate what communication is permitted and through which channel.
  • Workflow adoption: staff use the system consistently and understand its limitations.

2.2 Marketing automation

Marketing automation coordinates rules-based communications and tasks. A typical patient-education sequence might send a preparation message before a procedure, a reminder after non-completion, and a follow-up survey after the visit. Automation may reduce administrative workload and improve consistency, but it should not be confused with clinical personalization. A rule such as “send a reminder seven days before an appointment” is different from an AI-generated intervention based on an individual’s predicted needs.

Automation must include exception handling. Messages should be suppressed when an appointment is cancelled, a patient opts out, a clinician places a communication restriction, or a sensitive condition makes a generic message inappropriate. Every automated workflow should have an owner, a documented purpose, a test plan, an audit trail and a mechanism for escalation.

2.3 Measurement

Marketing dashboards often overemphasize clicks and conversion. Healthcare organizations should combine commercial, service, clinical and equity measures. Common metrics include reach, delivery rate, open rate, click-through rate, appointment completion, portal activation, time to access, no-show rate, patient-reported experience, complaint rate and disparities by language, age, disability, geography or socioeconomic status.

A basic rate is:

Conversion rate = (Number of desired completed actions ÷ Number of eligible recipients) × 100%

The numerator and denominator must be defined consistently. If “eligible recipients” excludes undeliverable messages, the reported rate may be higher than a rate based on all selected patients. Rates should therefore be accompanied by the population definition, observation period and exclusion rules. Conversion also does not establish causation: patients who respond may already be more motivated.

3. Patient Portals, Telehealth and Omnichannel Service Design

3.1 Patient portals

Patient portals can provide appointment scheduling, secure messaging, test-result access, prescription requests, billing information, educational resources and forms. They support self-service and may strengthen continuity, but their effect depends on usability and workflow integration. A portal that displays results without understandable context may increase anxiety and telephone demand. A secure message that enters an unmonitored queue creates a safety hazard.

High-quality portal design includes plain language, accessibility conformance, multilingual support, responsive mobile design, clear response-time expectations, identity assurance, proxy access rules and escalation for urgent matters. It should distinguish administrative communication from clinical advice and explicitly state that emergency symptoms require appropriate urgent services.

3.2 Telehealth

Telehealth includes synchronous video or telephone consultations, asynchronous messaging, remote monitoring and digital therapeutic support. From a marketing perspective, telehealth is not simply a promotional channel; it is a service configuration that changes convenience, geography, capacity, clinician workflow and patient expectations.

Before promoting telehealth, managers should evaluate:

  • clinical suitability and exclusion criteria;
  • licensing, jurisdiction and reimbursement requirements;
  • privacy of the patient’s environment and platform security;
  • digital literacy, connectivity and assistive technology;
  • escalation to physical examination or emergency care;
  • documentation and integration with the health record; and
  • continuity between virtual and in-person teams.

An omnichannel strategy allows patients to move among web, app, telephone, in-person and virtual channels without repeatedly providing the same information. The channel should be chosen according to patient preference, clinical need and accessibility—not solely according to the organization’s cost objective.

4. Interoperable Data and Personalization

4.1 Interoperability as an organizational capability

Interoperability is the ability of systems to exchange, interpret and use information reliably. It has technical, syntactic, semantic, organizational and legal dimensions. An interface may transmit data successfully while still failing semantically if “discharged,” “completed” or “urgent” means different things across systems.

Important building blocks include standardized APIs, shared terminology, metadata, master data management, patient identity matching, data lineage and role-based access control. Common health-data standards may support exchange, but implementation quality remains decisive. Interoperability is not achieved merely by purchasing systems that advertise compatibility.

A practical data flow is:

Healthcare marketing data and governance flow Data sourcesEHR, portal, web IntegrationAPI, identity, standards InsightSegments, forecasts EngagementPortal, SMS, care Governance across every stagePurpose • consent • security • equity • human oversight
Healthcare marketing data and governance flow
Figure: Healthcare marketing data and governance flow

Figure: A governed data-to-engagement flow for healthcare marketing.

4.2 Personalization

Personalization adapts content, timing, channel or service options to relevant characteristics. It may be explicit, such as a patient selecting a preferred language, or inferred, such as a model estimating the likelihood that a person will miss an appointment. Useful personalization improves relevance and reduces burden; intrusive personalization can feel manipulative, expose sensitive information or create unequal treatment.

Personalization should follow data minimization and purpose limitation. A hospital does not need every available clinical variable to send an appointment reminder. Sensitive attributes should not be used casually for targeting, and inferred characteristics should be treated as uncertain rather than as facts. Patients should receive understandable information about significant automated profiling and have meaningful routes to correction or human review where applicable.

5. Predictive and Generative AI

5.1 Predictive AI

Predictive systems estimate an outcome from input variables. In marketing and service management, applications include demand forecasting, no-show risk, channel preference, call-volume prediction, referral leakage detection and identification of patients who may benefit from outreach. A prediction is not a diagnosis, a cause or a moral judgment. It estimates a probability under conditions resembling the training and deployment environment.

For a binary outcome, a model may estimate:

p̂ = P(Y = 1 | X)

Here, Y = 1 denotes the event of interest, X represents observed input variables, and p̂ is the estimated probability. The estimate is useful only when the outcome is clearly defined, the data are sufficiently representative, the model is calibrated and the decision connected to it is appropriate. A no-show model, for example, should trigger supportive reminders—not punitive denial of access.

Managers should distinguish discrimination from calibration. Discrimination concerns whether higher-risk cases are ranked above lower-risk cases; calibration concerns whether predicted probabilities correspond to observed frequencies. A model can rank well but systematically overestimate risk for one group. Evaluation should include sensitivity, specificity, positive predictive value, calibration, false-positive and false-negative rates, and performance across relevant subgroups. Thresholds should reflect the cost of errors and the availability of human review.

5.2 Generative AI

Generative AI produces text, images, audio, code or other content from a prompt. Healthcare marketing uses include drafting campaign variants, translating or simplifying educational material, summarizing feedback and assisting contact-centre staff. Risks include hallucinated facts, fabricated citations, inappropriate tone, disclosure of confidential data, copyright concerns, stereotyping and automation bias.

Generative outputs require a controlled workflow: approved use case, secure environment, restricted input data, prompt and output logging where lawful, factual verification, accessibility review, clinical or legal review for high-risk content, and clear accountability for publication. A language model should not independently provide individualized diagnosis or treatment advice merely because it can generate fluent text.

5.3 AI evaluation beyond accuracy

Accuracy alone is inadequate. A responsible assessment asks:

  • Is the purpose legitimate and beneficial?
  • Is the data provenance lawful and appropriate?
  • Does performance generalize across populations and locations?
  • Are outputs understandable to users?
  • Can affected people challenge or correct decisions?
  • What happens when the system is unavailable or wrong?
  • Is the human workload reduced, or merely displaced?
  • Are environmental and vendor lock-in costs acceptable?

6. Bias, Explainability and Human Oversight

Algorithmic bias can enter through historical inequity, under-representation, measurement error, proxy variables, labeling decisions, model design, threshold selection or unequal access to the digital channel. For example, a model trained on portal activity may interpret low activity as low engagement when it actually reflects language barriers, disability, poverty or lack of broadband.

Bias mitigation is not a single technical correction. It may require changing the target outcome, collecting better data, removing inappropriate proxies, using stratified evaluation, redesigning the service, adding non-digital pathways and monitoring outcomes after deployment. Fairness criteria can conflict; reducing one error disparity may increase another. Therefore, fairness decisions should be explicit, documented and reviewed by multidisciplinary governance groups.

Explainability has several meanings. A global explanation describes how a model generally behaves; a local explanation describes why a particular case received an output; a process explanation describes how data, review and appeal operate. Explanations should be accurate, understandable and useful for action. A visually attractive feature-importance chart is not sufficient if it misrepresents causal relationships or cannot support correction.

Human oversight must be substantive rather than ceremonial. The reviewer needs authority, time, competence, access to relevant evidence and protection from pressure to accept the system’s recommendation. High-impact decisions should have an appeal route, an audit trail and a fallback process. Human involvement does not automatically make a system safe; humans can reproduce automation bias, discriminatory assumptions or rubber-stamping.

7. Privacy, Cybersecurity and Regulatory Governance

Privacy concerns the appropriate collection, use, disclosure and control of information. Cybersecurity protects confidentiality, integrity and availability against threats. They overlap but are not identical: a system may be secure from hackers while still using data for an unjustified purpose.

A privacy-by-design approach includes purpose specification, data minimization, retention limits, access controls, consent or another lawful basis, transparency, correction mechanisms, vendor due diligence and breach response. Requirements differ across jurisdictions, but healthcare managers should understand applicable health-information, consumer-protection, data-protection, records-retention and AI regulations rather than assuming that a marketing platform is exempt because it is hosted externally.

Core cybersecurity controls include multifactor authentication, least-privilege access, encryption in transit and at rest, secure configuration, patching, network segmentation, endpoint protection, backups, phishing resistance, logging, vulnerability management, incident response exercises and workforce training. Third-party risk is especially important because cloud vendors, analytics providers, call-centre platforms and AI services may process sensitive data.

A useful governance register records each use case, purpose, data elements, legal basis, owner, vendor, risk level, model version, validation evidence, retention period, user groups, monitoring indicators and retirement conditions. Governance should cover the complete lifecycle: design, procurement, testing, deployment, monitoring, change management and decommissioning.

8. Strategic Implementation Framework

A practical transformation programme can proceed through seven connected stages:

  1. Define the problem and value proposition. State whose problem is being addressed, what outcome matters and what harms are unacceptable.
  2. Map the service journey. Identify patient needs, staff work, access barriers, handoffs and failure points across channels.
  3. Assess data and architecture. Examine quality, interoperability, identity, consent, security, vendor dependencies and integration costs.
  4. Prioritize use cases. Rank opportunities by patient benefit, feasibility, equity, risk and measurable value—not by novelty.
  5. Pilot safely. Use a limited population, pre-specified success and harm measures, human review and a rollback plan.
  6. Evaluate and learn. Compare outcomes with a suitable baseline or control where feasible; investigate subgroup effects and unintended consequences.
  7. Scale with governance. Train users, document accountability, monitor drift, review incidents and retire tools that no longer deliver net benefit.

A balanced scorecard may include four perspectives:

PerspectiveIllustrative measures
Patient valueAccess time, experience, comprehension, continuity, complaints
Operational valueStaff time, queue length, no-show rate, response time
Equity and safetySubgroup performance, accessibility, adverse events, escalation failures
Financial and strategic valueCost per completed interaction, retention, referral growth, total cost of ownership

Financial evaluation should include implementation, integration, training, licensing, cybersecurity, support and opportunity costs. A low subscription price may conceal expensive data remediation or workflow redesign. Likewise, a high click-through rate may have no value if it increases inappropriate demand.

9. Illustrative Case: Northbridge Integrated Care Network

The following is a fictional illustrative case.

Background

Northbridge Integrated Care Network operates three outpatient clinics and a virtual-care service. It has a CRM, a patient portal and separate appointment, call-centre and electronic-record systems. Marketing sends generic reminders by SMS and email. No-show rates are high in two neighbourhoods, portal use is uneven, and staff complain that campaign lists contain duplicates.

Problem and analysis

An initial audit finds that identity matching is inconsistent, language preferences are missing, portal messages are not monitored overnight, and the CRM imports appointment data once daily. A proposed vendor offers an AI no-show score using historical attendance and portal activity. The team recognizes that portal activity may be a proxy for income, disability, language and broadband access. Automatically sending more reminders to “high-risk” patients could stigmatize them or miss people who are digitally excluded.

Approach and solution

Northbridge defines the objective as reducing avoidable missed appointments while preserving equitable access. It cleans identity records, adds preferred language and channel fields, and creates a consent and communication-preference service. It introduces two-way SMS, telephone outreach and accessible printed alternatives. The predictive model is used only to prioritize supportive outreach, not to cancel appointments or restrict booking. Staff can override the priority and record reasons.

The pilot uses a pre-specified evaluation plan. Measures include completed appointments, no-shows, staff time, message delivery, patient complaints and performance by language, age, disability status where lawfully available, and neighbourhood. A safety rule prevents the system from sending clinical advice; urgent or clinically sensitive matters are routed to trained staff. A governance committee reviews monthly performance and can pause the model.

Outcome

After the pilot, completed appointments improve and telephone workload falls modestly. However, the largest improvement occurs among patients offered telephone support, not among those receiving additional digital messages. The organization therefore expands assisted scheduling rather than treating AI as a replacement for human contact. It also discovers that one subgroup has lower model calibration and removes the model from that workflow pending redesign.

Learning points

The case demonstrates that technology value is produced by data quality, service design and human work together. A predictive score is not the intervention; the intervention is the governed process that follows it. Equity must be measured as an outcome, and a less automated solution may be the more effective transformation.

Challenges and Limitations

Digital transformation can deepen the digital divide, shift administrative work to patients, create dependence on vendors, increase surveillance and encourage organizations to optimize measurable activity rather than meaningful health outcomes. Data integration can also increase the scale of harm when incorrect information propagates across systems. AI models may drift as population behaviour, clinical practice, coding, technology or policy changes.

There are also organizational limitations. Clinicians may distrust opaque tools; marketing teams may lack clinical knowledge; information-technology teams may lack service-design capability; and executives may underestimate change-management costs. Data cannot repair a fundamentally confusing service process. Nor can personalization compensate for inadequate staffing, inaccessible facilities or poor continuity of care.

Responsible leaders should establish clear “no-go” conditions. These may include inability to explain the purpose, absence of lawful data authority, unacceptable subgroup harm, lack of human escalation, insecure vendor practices, or inability to withdraw and delete data when required. Strategic restraint is a competency, not a failure of innovation.

Contemporary Developments and Best Practices

Current developments include conversational interfaces, ambient data collection, synthetic data, federated learning, real-time personalization, remote monitoring and multimodal generative systems. These developments may improve access and productivity, but they increase the importance of provenance, consent, model evaluation and operational resilience. Synthetic data may reduce exposure of real records, yet it can reproduce the biases and statistical weaknesses of the source data. Federated approaches may limit central data movement but do not eliminate privacy or governance risks.

Best practices include:

  • begin with patient and service outcomes rather than technology procurement;
  • maintain a clear data inventory and system-of-record map;
  • separate clinical safety decisions from promotional optimization;
  • use inclusive design, accessibility testing and non-digital alternatives;
  • validate models locally and monitor subgroup performance;
  • disclose automation and provide practical human routes;
  • apply least privilege, multifactor authentication and tested incident response;
  • require vendor transparency, audit rights, exit plans and data-return provisions;
  • document assumptions, versions, thresholds and changes;
  • train staff in privacy, security, AI limitations and escalation; and
  • evaluate net benefit continuously, including harms and opportunity costs.

Chapter Summary

Marketing technology enables healthcare organizations to manage relationships, automate communication, analyze demand and coordinate digital touchpoints. CRM and automation are valuable only when supported by accurate identity, lawful permissions, integrated workflows and accountable staff. Patient portals and telehealth should be designed as parts of an accessible omnichannel service rather than as isolated promotional channels.

Interoperable data enables continuity and personalization, but interoperability requires semantic, organizational and governance alignment. Predictive AI estimates outcomes such as demand or no-show risk; generative AI produces content and assistance. Neither should be treated as inherently objective or clinically authoritative. Evaluation must address calibration, subgroup performance, explainability, privacy, security, usability and unintended consequences.

The central managerial principle is responsible transformation: technology should improve patient and stakeholder value while protecting safety, equity, autonomy and trust. Human oversight must possess real authority, and organizations must be willing to modify, restrict or retire systems that do not produce acceptable net benefit.

Key Terms

Marketing technology: Digital tools used to plan, execute and measure marketing and relationship activities.

Digital transformation: Organizational redesign using digital capabilities to improve services and value.

CRM: A system for managing stakeholder identities, interactions, preferences and relationship workflows.

Marketing automation: Rule-based execution of repeatable communication or marketing tasks.

Patient portal: A secure digital interface through which patients access services and information.

Telehealth: Delivery of healthcare through telecommunications and digital technologies.

Omnichannel service: Coordinated access across digital, telephone, virtual and in-person channels.

Interoperability: The ability of systems to exchange, interpret and use information reliably.

Identity resolution: Matching records that refer to the same person while avoiding unsafe conflation.

Personalization: Adaptation of content, timing, channel or service to relevant individual or group characteristics.

Predictive AI: AI used to estimate the probability or value of a future or unknown outcome.

Generative AI: AI that creates new text, images, audio, code or other content.

Algorithmic bias: Systematic unfairness arising from data, design, implementation or use.

Explainability: The degree to which system behaviour and outputs can be understood and challenged.

Calibration: Agreement between predicted probabilities and observed outcome frequencies.

Privacy by design: Embedding privacy protections throughout system and process design.

Cybersecurity: Protection of information and systems from threats to confidentiality, integrity and availability.

Human oversight: Competent, empowered human review and intervention across an automated system’s lifecycle.

Model drift: Decline or change in model performance as conditions evolve.

Data minimization: Collecting and using no more personal data than necessary for a defined purpose.

Review Questions

Short Answer Questions

  1. Distinguish digitization, digitalization and digital transformation.
  2. Why is identity resolution important in a healthcare CRM?
  3. State two differences between predictive AI and generative AI.
  4. What is meant by model calibration?
  5. Identify four cybersecurity controls relevant to patient-facing systems.

Long Answer Questions

  1. Explain how CRM, marketing automation and patient portals can be integrated while preserving privacy and clinical accountability.
  2. Discuss the strategic and operational requirements for an effective telehealth service.
  3. Analyze why interoperability is simultaneously a technical, semantic, organizational and legal challenge.
  4. Evaluate the benefits and risks of using generative AI to produce patient-education content.
  5. Develop a governance framework for an AI-supported healthcare marketing programme.

Analytical / Application Questions

  1. A clinic wants to use portal activity to prioritize no-show outreach. Analyze possible sources of bias and propose a safer evaluation and intervention design.
  2. Design a balanced scorecard for assessing a new omnichannel patient-engagement programme. Justify measures across patient value, operations, equity, safety and finance.
  3. A vendor claims that its model is “97% accurate.” Explain why this statement is insufficient for procurement and specify the evidence you would require before deployment.

Multiple Choice Questions with Answers

Question 1

Which statement best distinguishes digital transformation from digitization?

A. Digitization converts analogue information into digital form, whereas transformation redesigns services and organizational processes around digital capabilities.

B. Digitization always uses artificial intelligence, whereas transformation uses only spreadsheets.

C. Digitization concerns cybersecurity, whereas transformation concerns advertising.

D. There is no meaningful distinction between the two concepts.

Correct Answer: A. Digitization converts analogue information into digital form, whereas transformation redesigns services and organizational processes around digital capabilities.

Question 2

Which condition is most essential for a trustworthy healthcare CRM?

A. The largest possible volume of patient data

B. Accurate identity resolution combined with lawful permissions and workflow adoption

C. A prohibition on human review

D. Automatic publication of all clinical information to marketing staff

Correct Answer: B. Accurate identity resolution combined with lawful permissions and workflow adoption

Question 3

What does a predictive AI model generally estimate?

A. A guaranteed future outcome

B. A probability or value associated with an outcome, conditional on observed inputs

C. A legally binding diagnosis

D. A patient’s moral responsibility for an event

Correct Answer: B. A probability or value associated with an outcome, conditional on observed inputs

Question 4

Why can portal activity create bias in a no-show model?

A. Portal activity is always unrelated to access

B. Low activity may reflect digital exclusion or disability rather than low engagement

C. Portal data cannot ever be stored digitally

D. High portal activity proves that a patient will attend

Correct Answer: B. Low activity may reflect digital exclusion or disability rather than low engagement

Question 5

Which measure concerns calibration rather than discrimination?

A. Whether cases are ranked from higher to lower risk

B. Whether predicted probabilities correspond to observed frequencies

C. The number of variables in the model

D. The speed of the software interface

Correct Answer: B. Whether predicted probabilities correspond to observed frequencies

Question 6

Which is an appropriate use of human oversight?

A. Allowing staff to review, challenge and override a model within a documented process

B. Requiring staff to accept every model output

C. Removing all audit trails

D. Using a human reviewer only after the system has been retired

Correct Answer: A. Allowing staff to review, challenge and override a model within a documented process

Question 7

Which practice best reflects privacy by design?

A. Collecting every available data element in case it becomes useful

B. Defining purpose, minimizing data, limiting access and setting retention controls from the outset

C. Publishing vendor credentials for transparency

D. Treating security as irrelevant when consent is obtained

Correct Answer: B. Defining purpose, minimizing data, limiting access and setting retention controls from the outset

Question 8

Which statement about generative AI in patient education is most accurate?

A. Fluent output is sufficient evidence of clinical accuracy

B. Outputs should be verified and reviewed because generative systems can hallucinate or use inappropriate language

C. Generative AI cannot create text

D. Human review is unnecessary for public-facing content

Correct Answer: B. Outputs should be verified and reviewed because generative systems can hallucinate or use inappropriate language

Question 9

What is a key feature of an omnichannel healthcare strategy?

A. Forcing every patient to use the cheapest channel

B. Coordinating web, telephone, virtual and in-person channels around patient needs and continuity

C. Eliminating all in-person care

D. Using separate, incompatible identities in every channel

Correct Answer: B. Coordinating web, telephone, virtual and in-person channels around patient needs and continuity

Question 10

Which item should be included in an AI governance register?

A. Only the software brand name

B. Purpose, data elements, owner, risk level, validation evidence and monitoring indicators

C. The personal passwords of all users

D. Only the model’s marketing slogan

Correct Answer: B. Purpose, data elements, owner, risk level, validation evidence and monitoring indicators

Healthcare Marketing & Services Marketing
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