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Critical Integrative Evidence Synthesis · 2025

Will Radiology Leaders Be Led,
Or Will They Become the Leaders?

A research perspective based on current peer-reviewed evidence across academic, for-profit, nonprofit, community, and large complex multi-hospital radiology ecosystems.

Decision rights | Evidence | Execution
Five multidisciplinary healthcare professionals collaborate around a conference table in a modern healthcare leadership setting.
Answer to the Title Question

Radiology leaders will be led when they accept delegated accountability without decision rights, data authority, resource influence, or workforce legitimacy. They become the leaders when they convert clinical expertise into an enterprise operating model that reliably governs access, safety, quality, technology, people, and capital.

5
Converging forces narrowing the scope of passive departmental leadership
5
Organizational archetypes compared, from academic to multi-hospital scale
8
Proposed domains of radiology leadership agency with observable evidence
34
Peer-reviewed sources synthesized, with emphasis on 2019 through 2025

The Structural Paradox

Radiology touches nearly every clinical service line, major capital plan, emergency pathway, cancer program, digital platform, and access strategy. Yet its leaders are often positioned as departmental operators rather than enterprise strategists. Radiology is indispensable to how the health system makes decisions, but radiology leaders may have limited authority over the financial, technological, workforce, and access decisions that determine imaging performance.

The question is not whether radiology requires leadership. The question is who will exercise it. If radiology does not define the operating logic of imaging, other actors will: finance, enterprise IT, vendors, payers, corporate owners, and clinical service lines. Each has legitimate interests, but none sees the entire diagnostic imaging system with the same clinical, technical, and operational integration as radiology.

Management and Leadership: Both Required

The paper distinguishes management from leadership without devaluing either. Management stabilizes schedules, work queues, budgets, protocols, and compliance. Leadership determines the direction of the system, negotiates decision rights, aligns competing stakeholders, and changes the architecture through which performance is produced.

A department can be well managed while being strategically led by others. Conversely, a leader can possess enterprise visibility without the operational discipline to convert influence into results. The required future state combines both.

Flow graphic showing the movement from being led, through radiology leadership, to leading.

Executive Conclusions

The default trajectory is toward external control. Payers, enterprise finance, information technology, corporate owners, health-system strategy, vendors, and workforce scarcity increasingly determine the conditions under which imaging is delivered.

Leadership agency is not a title. It is the demonstrated capacity to influence enterprise decisions and execute them through reliable clinical, operational, financial, workforce, and digital governance.

Ownership structure changes incentives but does not determine leadership quality. Every setting contains pathways to leadership and pathways to administrative dependency.

Artificial intelligence is a governance test, not simply a procurement decision. Local validation, workflow integration, post-deployment monitoring, bias surveillance, and accountable ownership separate strategic adoption from vendor-led experimentation.

Workforce well-being is an operating outcome. Burnout is not adequately addressed by individual resilience programs when demand, staffing, schedule design, workflow fragmentation, and psychological safety remain unmanaged.

Community access and health equity are not peripheral social commitments. They determine whether radiology creates population-level value, closes diagnostic pathways, and protects the legitimacy of capital allocation.

The strongest future model is federated enterprise leadership. Standards, technology, data, and selected work queues coordinated at scale, while clinical judgment and local adaptation remain close to patients and frontline teams.

Radiology leaders and clinicians in a collaborative planning discussion.

Five Forces Are Redefining Who Leads Radiology

The evidence identifies five converging forces that narrow the scope of passive departmental leadership. Each force moves decision-making upward or outward unless radiology brings an evidence-based operating model to the table.

1

Workforce scarcity converts leadership quality into operating capacity

The contemporary workforce problem is not simply a shortage of radiologists or technologists. It is a demand-capacity problem amplified by rising study complexity, continuous coverage expectations, fragmented workflows, and increasing administrative work. Leadership is implicated in both the production and mitigation of this burden. The leadership test is not whether a wellness program exists. It is whether leaders alter the conditions that generate preventable demand, rework, overload, and moral injury.

Rozenshtein et al., 2025; Siewert et al., 2025; Parikh et al., 2020, 2022; Ganeshan et al., 2019; Shanafelt et al., 2015, 2021; Lexa & Parikh, 2023
2

Consolidation provides scale, but scale can displace professional agency

Medicare-based analyses show movement away from smaller groups toward larger organizations through 2023, with continuing corporate acquisition activity. Consolidation can simultaneously increase organizational capability and reduce local professional autonomy. Higher negotiated prices demonstrate bargaining leverage, not superior value. The relevant distinction is whether radiology retains enforceable governance over clinical quality, workload, technology validation, and patient access when capital ownership changes.

Christensen et al., 2024; Rosenkrantz et al., 2020; Chen et al., 2025; Khunte & Singh, 2025; Khunte et al., 2025; Lee et al., 2023
3

Artificial intelligence separates procurement from leadership

Systematic reviews show heterogeneous efficiency effects, with outcomes dependent on task, workflow integration, and study design. Deployment is not the endpoint: ethical frameworks emphasize transparency, accountability, fairness, privacy, and human responsibility, and emerging work reinforces post-deployment monitoring for drift and unanticipated consequences. Leaders who merely approve a product are being led by the product lifecycle. Leaders who define the clinical problem, conduct local validation, design workflows, monitor, and establish retirement criteria govern the technology.

Daye et al., 2022; Tejani et al., 2024; Wenderott et al., 2024, 2025; Liu et al., 2024; Geis et al., 2019; Aldhafeeri, 2025; Cook et al., 2026
4

Access and equity determine whether radiology creates population value

Imaging disparities occur across referral, scheduling, authorization, transportation, language access, examination completion, interpretation, communication, and follow-up. Extreme neighborhood-level socioeconomic deprivation is associated with reduced access to ACR-accredited advanced imaging facilities. A department cannot claim high performance solely through throughput or turnaround time if patients do not reach the examination, complete recommended follow-up, or receive understandable results.

Lawson et al., 2022; Waite et al., 2021; Jose et al., 2023
5

Enterprise scale rewards governance, not centralization alone

Shared imaging protocols can be developed and delivered across sites when governance, modality adaptation, and local implementation are deliberately designed. Enterprise imaging is an organizational capability, not a departmental storage project. If enterprise imaging is treated exclusively as an information-technology asset, radiology becomes a downstream user. If radiology contributes clinical governance, workflow knowledge, data standards, and value measurement, it becomes an enterprise architect.

Venkataraman et al., 2019; Sachs et al., 2017; Roth et al., 2024
Multidisciplinary imaging team reviewing operational data together.

Selected Evidence Signals

Interactive rebuilds of the paper’s Figure 1. The panels should not be combined into a single score, as they measure different constructs. Their collective message: ownership shapes bargaining power, burnout is widely recognized but incompletely addressed, and leadership roles themselves carry substantial workforce risk.

Negotiated Professional Fees by Ownership

Percentage difference in negotiated commercial professional fees relative to independent practices, adjusted estimates.

Source: Khunte et al. (2025). Bargaining leverage, not superior value: price, quality, access, workforce sustainability, and patient outcomes are different constructs.

The Recognition-to-Response Gap

Radiology practice leaders who judged burnout significant versus those reporting an organizational mechanism to address it.

Source: Parikh et al. (2020). A persistent gap between recognition and action.

Burnout Among Radiology Leaders Themselves

Different study populations and definitions, displayed for context and not direct comparison. Positional authority does not protect leaders from the conditions they are expected to manage.

Sources: Parikh et al. (2022); Ganeshan et al. (2019).

Comparative Analysis Across Radiology Ecosystems

The evidence does not support declaring one organizational model inherently superior. Each archetype creates a different mixture of mission, capital, speed, autonomy, scale, and accountability. Select an archetype to explore its dominant mandate, predictable constraint, and leadership opportunity. Archetypes are overlapping analytic categories, not mutually exclusive ownership classes.

Academic Radiology: intellectual authority without automatic enterprise authority

Dominant mandate

Clinical care, research, education, discovery.

Predictable constraint

Institutional politics, cross-subsidy, promotion systems, RVU pressure.

Leadership opportunity

Translate discovery into operations; protect teaching and research; diversify the leadership pipeline.

Academic radiology possesses deep subspecialty expertise, research capacity, trainees, and institutional prestige. Leadership-development programs show that business, communication, and strategic skills can be cultivated rather than assumed. The leadership risk is becoming an intellectually distinguished service that still relies on the health system’s operating model. Academic leadership also requires a credible inclusion strategy: reviews continue to identify underrepresentation of women and several racial and ethnic groups in radiology and its senior roles, which affects the breadth of leadership perspectives, mentorship, recruitment, research priorities, and connection to the populations served.

Health system leaders comparing organizational models across sites.

The Radiology Leadership Agency Model

Leadership agency depends on two interacting dimensions. Operating capability is the ability to produce reliable access, safety, quality, workforce, financial, and digital outcomes. Enterprise influence is the ability to shape capital, policy, information architecture, contracting, clinical pathways, and organizational priorities. Either dimension alone is insufficient. Select a quadrant to explore each state.

Operating capability →
Enterprise influence and decision rights →

Enterprise Radiology Leader

The desired state combines execution credibility with decision rights and coalition influence. This leader secures decision rights, builds credible operating intelligence, governs technology, protects workforce capacity, makes access and equity measurable, and translates clinical expertise into enterprise strategy. This is a conceptual model proposed for empirical testing.

The Agency Heuristic

RLA = ( D × I × F × W × G ) / ( C + ε )
D Decision rightsI Operating intelligenceF Financial and strategic fluencyW Workforce legitimacyG Governance integrationC External constraint

The multiplicative form is intentional: a near-zero value in one domain can disable the whole model. This is not a validated equation and should not be used as a numerical score until measurement properties are established.

Eight Proposed Domains of Radiology Leadership Agency

Each domain names what leadership controls or influences, together with the observable evidence that shows whether agency actually exists. These domains feed the interactive self-assessment on the Self-Assessment tab.

Influence

Decision Rights

Controls or influences: Formal authority over protocols, safety, workflow, technology validation, and escalation.

Observable evidence: Written governance charter; approval and veto boundaries; escalation time.

Capability

Operating Intelligence

Controls or influences: One version of performance across sites and modalities.

Observable evidence: Access, completion, turnaround, repeats, follow-up closure, site variation.

Influence

Financial Fluency

Controls or influences: Ability to connect clinical choices with capital, cost, reimbursement, and margin.

Observable evidence: Cost per completed exam, contribution margin, denial and authorization burden, capital ROI.

Capability

Workforce Legitimacy

Controls or influences: Trust created through listening, fair workload, development, and psychological safety.

Observable evidence: Vacancy, turnover, overtime, burnout, fulfillment, safety climate, internal mobility.

Capability

Digital Stewardship

Controls or influences: Lifecycle governance for PACS, enterprise imaging, automation, and AI.

Observable evidence: Local validation, uptime, drift, override, safety events, net time saved.

Capability

Clinical Quality and Safety

Controls or influences: Evidence-based protocols and closed-loop communication.

Observable evidence: Critical result closure, discrepancy, repeat rates, dose, contrast, and MRI events.

Capability

Access and Equity

Controls or influences: Design that reaches patients and closes diagnostic pathways.

Observable evidence: Days to next appointment, no-show, completion, geographic and language gaps, closure.

Influence

Enterprise Coalition

Controls or influences: Influence across service lines, finance, IT, quality, and the board.

Observable evidence: Shared objectives, joint decisions, capital alignment, stakeholder confidence.

Table 2 of the paper. Proposed domains of radiology leadership agency and their observable evidence.

Seven Evidence-Informed Propositions

The synthesis yields seven propositions for research and executive use.

1

Agency is a governance property, not a personality trait.

Charisma cannot substitute for decision rights, data, resources, and execution infrastructure. Leadership development is necessary, but it must be paired with organizational design.

2

Scale magnifies both capability and error.

Enterprise platforms can spread subspecialty access and standardization, but they can also spread poorly validated protocols, unreasonable workload, and technology failure.

3

Ownership is an incentive context, not an outcome.

Academic prestige, nonprofit status, physician ownership, hospital employment, or private equity affiliation cannot, in and of themselves, establish quality or value.

4

Artificial intelligence will expose weak governance.

Organizations without explicit validation, accountability, monitoring, and retirement processes will experience fragmented adoption and uncertain value.

5

Workforce sustainability is a leading indicator of clinical reliability.

Turnover, chronic vacancies, overtime, and burnout signal that the operating model is consuming capacity faster than it can reproduce it.

6

Equity must be built into access architecture.

If leaders do not stratify access and completion by geography, language, payer, and deprivation, aggregate averages can conceal systematic exclusion.

7

Enterprise influence must be earned through operational credibility.

Radiology gains strategic authority when it can demonstrate predictable execution, transparent tradeoffs, and measurable impact beyond the reading room.

Radiology leadership team aligning on strategy in an executive setting.

From Concept to Action: A Leadership Operating Agenda

A sequenced agenda for leaders who intend to lead: six moves in the first 90 days, followed by an eight-part twelve-month build.

First 90 Days

Map decision rights

Document who can approve, stop, fund, standardize, monitor, and retire clinical protocols, workforce models, digital tools, and capital initiatives.

Establish a single operating baseline

Define access, demand, staffed capacity, quality, safety, workforce, finance, and digital performance with consistent denominators across sites.

Identify three enterprise dependencies

Select the radiology problems that cannot be solved within the department, such as authorization, capital, enterprise IT, transport, or service-line referral behavior.

Create an AI and automation inventory

Record every deployed, piloted, purchased, internally developed, or informally used tool, together with its owner, evidence, validation, and monitoring status.

Conduct a frontline work review

Observe technologists, radiologists, nurses, schedulers, access staff, and referring clinicians to identify rework, interruptions, queues, and hidden safety adaptations.

Choose one equity-sensitive pathway

Measure the full journey for high-impact populations, including abnormal mammography, lung screening, stroke imaging, oncology staging, and MRI access.

Twelve-Month Build

Negotiate a radiology governance charter

Linked to enterprise quality, IT, finance, and clinical service lines.

Implement a federated protocol council

With common evidence standards, change control, equipment adaptation, and site-level feedback.

Build a demand-capacity workforce model

By modality, site, shift, role, and skill rather than relying only on annual budgeted positions.

Create lifecycle governance for AI

Problem definition, procurement, local validation, implementation, value assessment, surveillance, and retirement.

Deploy a balanced scorecard

That prevents productivity or margin from becoming the sole definition of performance.

Develop succession and leadership pathways

For radiologists, technologists, nurses, physicists, informaticists, and administrators.

Report access and diagnostic closure by segment

By population segment and geography, not only as an enterprise average.

Present radiology as an enterprise value platform

To executive leadership and the board, using patient, clinical, workforce, financial, and digital outcomes.

A Balanced Scorecard for Leaders Who Intend to Lead

A leadership scorecard should reveal tradeoffs rather than hide them. Increasing examinations per labor hour may improve short-term productivity while worsening repeats, report quality, turnover, or safety. Balanced measurement protects the organization from optimizing one metric at the expense of the system. Every metric requires an explicit numerator, denominator, time window, owner, and escalation threshold.

Outcome familyCore measures
Patient and accessTime to next available; order-to-exam interval; completion; no-show; patient understanding; geographic access
Clinical qualityProtocol appropriateness; discrepancy; addenda; repeat imaging; report clarity; downstream diagnostic contribution
SafetyCritical-result closure; contrast events; MRI events; radiation dose; near-miss reporting; corrective-action closure
WorkforceVacancy; turnover; time to fill; overtime; workload distribution; burnout; professional fulfillment; psychological safety
FinanceCost per completed examination; technical and professional margin; denial; authorization burden; capital utilization
Digital and AIUptime; workflow failure; local performance; drift; override; net time saved; adoption; safety events; retirement status
Enterprise reliabilityProtocol conformance; cross-site variation; turnaround distribution; service-line satisfaction; transfer and image availability
EquityAccess, completion, delay, and closure stratified by geography, language, payer, race, and ethnicity, where appropriate, and deprivation

Table 3 of the paper. Illustrative balanced scorecard.

Watch for metric substitution. Centralized scheduling may improve average utilization while widening access gaps for patients with transportation or language barriers. An AI tool may shorten one task while increasing verification work elsewhere. The scorecard exists to make those tradeoffs visible.

Leadership Agency Self-Assessment

Rate your organization across the eight proposed agency domains. Five domains map to operating capability and three map to enterprise influence and decision rights, following the Agency Model. Your result is plotted on the model’s matrix. This is a reflective exercise derived from the paper’s conceptual model, not a validated instrument.

0 Absent1 Emerging2 Established3 Enterprise-grade
InfluenceDecision rights. Radiology holds a written governance charter with clear approval and veto boundaries over protocols, safety, workflow, and technology validation.
CapabilityOperating intelligence. One version of performance exists across sites and modalities: access, completion, turnaround, repeats, follow-up closure, and site variation.
InfluenceFinancial fluency. Leadership can connect clinical choices with capital, cost, reimbursement, and margin, including cost per completed exam and capital ROI.
CapabilityWorkforce legitimacy. Trust is measurable through vacancy, turnover, overtime, burnout, fulfillment, safety climate, and internal mobility, and leadership acts on it.
CapabilityDigital stewardship. PACS, enterprise imaging, automation, and AI operate under lifecycle governance: local validation, monitoring for drift, override tracking, and retirement criteria.
CapabilityClinical quality and safety. Evidence-based protocols and closed-loop communication are tracked through critical result closure, discrepancy, repeats, dose, contrast, and MRI events.
CapabilityAccess and equity. Access, completion, delay, and diagnostic closure are stratified by geography, language, payer, and deprivation, not reported only as averages.
InfluenceEnterprise coalition. Radiology shares objectives and joint decisions with service lines, finance, IT, quality, and the board, with visible capital alignment and stakeholder confidence.

References and Methods

Methods: Rapid Critical Integrative Review

Targeted searches of PubMed, PubMed Central, peer-reviewed journal platforms, and reference chaining, completed in 2025. The primary evidence window was January 2019 through 2025, supplemented by earlier foundational studies. Included sources were peer-reviewed original investigations, systematic or structured reviews, consensus papers, and peer-reviewed expert-panel analyses. Non-peer-reviewed trade coverage and vendor materials were not used as the basis for analytic claims. This approach is an executive and theoretical synthesis and should not be interpreted as a formal systematic review: it does not claim exhaustive database capture, dual-reviewer screening, preregistration, or meta-analytic comparability.

Ahrari, A., Abbas, A., Bhayana, R., Harris, A., & Probyn, L. (2021). Leadership development programs for radiology residents: A literature review. Canadian Association of Radiologists Journal, 72(4), 669–677. DOI
Aldhafeeri, F. M. (2025). Governing artificial intelligence in radiology: A systematic review of ethical, legal, and regulatory frameworks. Diagnostics, 15(18), 2300. DOI
Chen, J., Hegde, R., & LeBedis, C. (2025). Trends in corporate acquisitions of radiology practices and imaging centers over 11 years. Journal of the American College of Radiology, 22(6), 662–664. DOI
Christensen, E. W., Chung, Y. K., Rula, E. Y., & Parikh, J. R. (2024). Changes in the radiology practice landscape and indicators of practice consolidation from 2014 to 2023. American Journal of Roentgenology, 223(2), e2431357. DOI
Cook, C. J., Klug, J. R., Kandler, B. W., et al. (2026). State of the AI: Post-deployment monitoring of radiology-focused internally developed AI. Mayo Clinic Proceedings: Digital Health, 4(1), 100342. DOI
Daye, D., Wiggins, W. F., Lungren, M. P., et al. (2022). Implementation of clinical artificial intelligence in radiology: Who decides and how? Radiology, 305(3), 555–563. DOI
Ganeshan, D., Wei, W., & Yang, W. (2019). Burnout in chairs of academic radiology departments in the United States. Academic Radiology, 26(10), 1378–1384. DOI
Geis, J. R., Brady, A. P., Wu, C. C., et al. (2019). Ethics of artificial intelligence in radiology: Summary of the joint European and North American multisociety statement. Radiology, 293(2), 436–440. DOI
Jose, O., Stoeckl, E. M., Miles, R. C., et al. (2023). The impact of extreme neighborhood socioeconomic deprivation on access to American College of Radiology-accredited advanced imaging facilities. Radiology, 307(3), e222182. DOI
Khounsarian, F., Abu-Omar, A., Emara, A., et al. (2024). A trend, analysis, and solution on women’s representation in diagnostic radiology in North America: A narrative review. Clinical Imaging, 109, 110135. DOI
Khunte, M., Radhakrishnan, N., Whaley, C., & Singh, Y. (2025). Association of private equity and hospital consolidation and negotiated prices of radiologic services. Journal of the American College of Radiology, 22(11), 1380–1387. DOI
Khunte, M., & Singh, Y. (2025). Private equity acquisitions of radiology practices from 2013 to 2023: National- and state-level analyses. American Journal of Roentgenology. DOI
Lawson, M. B., Scheel, J. R., Onega, T., Carlos, R. C., & Lee, C. I. (2022). Tackling health disparities in radiology: A practical conceptual framework. Journal of the American College of Radiology, 19(2 Part B), 344–347. DOI
Lee, C. I., Davis, M. A., Lexa, F. J., & Liao, J. M. (2023). JACR Health Policy Expert Panel: Private equity investment in radiology. Journal of the American College of Radiology, 20(9), 940–942. DOI
Lemak, C. H., Pena, D. E., Jones, D. A., Kim, D. H., & Guptill, J. (2024). Leadership to accelerate healthcare’s digital transformation: Evidence from 33 health systems. Journal of Healthcare Management, 69(4), 267–279. DOI
Lexa, F. J., & Parikh, J. R. (2023). Leadership: Causing and curing burnout in radiology. Journal of the American College of Radiology, 20(5), 500–502. DOI
Liu, H., Ding, N., Li, X., et al. (2024). Artificial intelligence and radiologist burnout. JAMA Network Open, 7(11), e2448714. DOI
Parikh, J. R., Van Moore, A., Mead, L., Bassett, R., & Rubin, E. (2022). Prevalence of burnout in private practice radiology leaders. Clinical Imaging, 92, 1–6. DOI
Parikh, J. R., Wolfman, D., Bender, C. E., & Arleo, E. (2020). Radiologist burnout according to surveyed radiology practice leaders. Journal of the American College of Radiology, 17(1), 78–81. DOI
Parikh, J. R., & Lexa, F. J. (2024). Practical strategies to retain radiologists. Journal of the American College of Radiology, 21(6), 963–968. DOI
Rosenkrantz, A. B., Fleishon, H. B., Silva, E., III, Bender, C. E., & Duszak, R., Jr. (2020). Radiology practice consolidation: Fewer but bigger groups over time. Journal of the American College of Radiology, 17(3), 340–348. DOI
Roth, C. J., Petersilge, C., Clunie, D., et al. (2024). HIMSS-SIIM Enterprise Imaging Community white papers: Reflections and future directions. Journal of Imaging Informatics in Medicine, 37, 429–443. DOI
Rozenshtein, A., Findeiss, L. K., Wood, M. J., Shih, G., & Parikh, J. R. (2025). The U.S. radiologist workforce: AJR Expert Panel narrative review. American Journal of Roentgenology, 224(5), e2432085. DOI
Sachs, P. B., Hunt, K., Mansoubi, F., & Borgstede, J. (2017). CT and MR protocol standardization across a large health system: Providing a consistent radiologist, patient, and referring provider experience. Journal of Digital Imaging, 30(1), 11–16. DOI
Shanafelt, T. D., Gorringe, G., Menaker, R., et al. (2015). Impact of organizational leadership on physician burnout and satisfaction. Mayo Clinic Proceedings, 90(4), 432–440. DOI
Shanafelt, T. D., Wang, H., Leonard, M., et al. (2021). Assessment of the association of leadership behaviors of supervising physicians with personal-organizational values alignment among staff physicians. JAMA Network Open, 4(2), e2035622. DOI
Sharma, S., Malik, A., Matschek, J., et al. (2025). Assessing and improving women’s representation in radiology leadership positions. Current Problems in Diagnostic Radiology, 54(1), 4–10. DOI
Siewert, B., Bruno, M. A., Bourland, J. D., et al. (2025). Seven challenges in radiology practice: From declining reimbursement to inadequate labor force. Journal of the American College of Radiology, 22(1), 129–138. DOI
Smith, D. A., Arnold, W. L., Krupinski, E. A., Powell, C., & Meltzer, C. C. (2019). Strategic talent management: Implementation and impact of a leadership development program in radiology. Journal of the American College of Radiology, 16(7), 992–998. DOI
Tejani, A. S., Cook, T. S., Hussain, M., et al. (2024). Integrating and adopting AI in the radiology workflow: A primer for standards and Integrating the Healthcare Enterprise profiles. Radiology, 311(3), e232653. DOI
Venkataraman, V., Browning, T., Pedrosa, I., et al. (2019). Implementing shared, standardized imaging protocols to improve cross-enterprise workflow and quality. Journal of Digital Imaging, 32(5), 880–887. DOI
Waite, S., Scott, J., & Colombo, D. (2021). Narrowing the gap: Imaging disparities in radiology. Radiology, 299(1), 27–35. DOI
Wenderott, K., Krups, J., Zaruchas, F., & Weigl, M. (2024). Effects of artificial intelligence implementation on efficiency in medical imaging: A systematic literature review and meta-analysis. npj Digital Medicine, 7, 265. DOI
Wenderott, K., Krups, J., Weigl, M., & Wooldridge, A. R. (2025). Facilitators and barriers to implementing AI in routine medical imaging: Systematic review and qualitative analysis. Journal of Medical Internet Research, 27, e63649. DOI
Wichtmann, B. D., Paech, D., Pianykh, O. S., et al. (2025). Leadership in radiology in the era of technological advancements and artificial intelligence. European Radiology. Advance online publication. DOI

Will Radiology Leaders Be Led, Or Will They Become the Leaders? A critical integrative evidence synthesis. Kelly Emrick, DHSc, PhD, MBA, BSRT(ARRT)R · 2025. Radiology will be led by default. It will lead by design.