To What Extent Can Artificial Intelligence Sustain Leadership Talents in Education? Voices of Educational Leaders and Experts
Abstract
1. Introduction
Operational Definitions of Key Constructs
2. Materials and Methods
2.1. Research Design
2.2. Study Sample and Recruitment
2.3. Data Collection
2.4. Data Analysis and Coding Strategy
- Translation and Verification:All interviews, originally conducted in Arabic, were translated into English. Translations were carefully verified to ensure fidelity to participants’ original meanings, maintaining accuracy and nuance.
- Familiarization with the Data:Researchers read each transcript multiple times to immerse themselves in the data. Initial observations, key points, and potential patterns were noted to guide the coding process.
- Initial Coding:Meaningful statements, phrases, and observations were highlighted and assigned descriptive codes. Codes were formulated to stay as close as possible to participants’ own words, capturing the essence of their responses. Related codes were grouped together to facilitate the development of higher-level categories.
- Iterative Refinement and Codebook Development:Codes were reviewed repeatedly to clarify ambiguities, merge overlapping codes, and remove redundancies. A codebook was maintained throughout the process, documenting the following aspects:
- ○
- Code names and labels;
- ○
- Definitions of each code;
- ○
- Illustrative examples from the data;
- ○
- How each code contributed to emerging categories and themes.The codebook was updated iteratively as new codes emerged, ensuring systematic, transparent, and replicable analysis.
- Formation of Categories and Emerging Themes:Related codes were clustered into categories representing broader patterns. Categories were examined to identify emerging themes, which reflected conceptual relationships and shared perspectives across participants.
- Review and Finalization of Themes:All themes were reviewed against the full dataset to ensure consistency and coherence. Clear definitions and concise labels were assigned to each theme, providing an organized representation of the findings.
- In this study, consensus was conceptualized as analytical convergence rather than numerical agreement. During theme development, patterns were considered consensual when similar interpretations, evaluations, or experiences were consistently expressed across multiple participant accounts throughout iterative coding and theme refinement. To enhance methodological rigor and minimize confirmation bias, the analysis explicitly incorporated divergent, ambivalent, and critical perspectives. Negative and contrasting cases were retained and analytically examined, informing both theme boundaries and interpretive depth. While the relative prominence of specific AI tools or approaches was considered by examining how widely they were discussed across participants, frequency was not treated as a proxy for analytical importance.
- Confidentiality Measures:Pseudonyms were assigned to all participants to maintain privacy and confidentiality throughout the research process.
2.5. Reliability
2.6. Methodological Limitations
3. Results
- AI-driven Tools and Technologies Perceived as Most Effective in Identifying Leadership Talent
4. Discussion
5. Conclusions
5.1. Recommendations
- Create a comprehensive database of leadership talent that documents the leadership traits and performance of emerging leaders so that artificial intelligence can analyze them and discover leadership talents more accurately.
- Use AI to stimulate participatory leadership by creating AI-based communication platforms that allow leaders to discuss common strategies and manage teams within their organizations.
- Use AI to create realistic leadership simulations to provide interactive experiences around real situations that leaders are exposed to, such as crises, negotiation, and task distribution.
5.2. Proposals for Future Research
- Conduct a comparative study of the impact of artificial intelligence on the sustainability and development of educational leaders between government and private institutions, and the extent to which this reflects on organizational culture.
- Conduct a study exploring the reality of employing AI-powered behavioral assessment tools to develop academic leadership skills in Omani educational institutions.
- Ensure transparency and explainability in AI-based leadership assessment systems.
- Assess Arabic-capable AI Systems in leadership contexts.Future research should investigate the effectiveness and limitations of Arabic-language AI tools, particularly in relation to natural language processing, cultural nuance, and contextual accuracy in leadership assessment processes.
- Apply technology acceptance models (TAMs/UTAUT).Future studies could apply TAMs or UTAUT frameworks to systematically examine how educational leaders perceive the usefulness, ease of use, and behavioral intentions related to AI adoption in leadership talent development.
Supplementary Materials
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Abbreviations
| AI | Artificial Intelligence |
| NLP | Natural Language Process |
| ROI | Return on Investment |
| SQU | Sultan Qaboos University |
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| Group | Gender | Age (Years) | Institution | Role/Position | Years of Experience | AI Domain Expertise | Prior AI Exposure |
|---|---|---|---|---|---|---|---|
| AI Experts | 6 F | 30–35 | Sultan Qaboos University | AI Specialist/Instructor | 5–10 | Machine Learning, Predictive Analytics | Teaching, Workshops, Projects |
| 6 M | 40–45 | Ministry of Education | AI Specialist/Consultant | 10–15 | Data Analytics, Decision Support | Training Programs, System Development | |
| Educational Leaders | 5 F | 35–40 | Sultan Qaboos University | Dean/Department Head | 8–12 | Strategic Planning, Digital Integration | Participation in AI initiatives |
| 4 M | 30–35 | Ministry of Education | Director/Program Manager | 7–10 | Leadership Assessment, AI Tools | Exposure to AI Tools in Schools | |
| 4 M | 40–45 | Ministry of Higher Education, Scientific Research, & Innovation | Director/Policy Advisor | 12–18 | Digital Leadership, AI Integration | AI-driven Decision Making |
| Theme | Definition | Frequency (Number of Participants) | Representative Quotes (Including Counterexamples) |
|---|---|---|---|
| Big Data Analytics Tools | AI tools that analyze quantitative and qualitative data from employees’ and students’ performance to identify leadership competencies. | 12 (All AI experts + educational leaders referenced data-driven analysis) | “AI tools can process huge amounts of data related to professional and behavioral performance… By analyzing this data, behavioral patterns are identified that indicate leadership skills such as decision-making, problem-solving, and motivating others.” (Participant 2) |
| AI-based Behavioral Assessment Tools | Simulation-based tools that evaluate individuals’ behavior in hypothetical leadership scenarios, capturing traits such as assertiveness, adaptability, and emotional intelligence. | 11 | “Smart simulation tools show us how a candidate behaves in real situations, and this is more accurate than just looking at academic performance.” (Participant 5) |
| Smart Talent Discovery Platforms | Platforms using AI techniques (e.g., NLP) to analyze CVs, career profiles, and textual data to detect hidden leadership potential. | 9 | “These platforms deconstruct textual data to extract personality traits, behavioral skills, and leadership indicators such as initiative, teamwork, and influence… even when individuals do not hold managerial positions.” (Participant 7) |
| Predictive Analytics Tools | Tools that predict future leadership potential by analyzing current performance patterns and behaviors. | 10 | “Predictive techniques allow us to know who will be a successful leader years later, by analyzing their current behaviors.” (Participant 3) |
| AI-Powered Decision Support Systems | Systems that provide recommendations for leadership selection and development based on historical performance and AI algorithms, reducing bias and enhancing transparency. | 8 | “The system can identify individuals who show strong indicators of leadership readiness, such as decision-making ability, influencing others, and strategic thinking.” (Participant 9) Counterexample: Participant 6 noted that AI-based recommendations should always be complemented by human judgment to avoid overreliance on algorithms. |
| Theme | Definition | Frequency (Out of 25 Participants) | Representative Quotes (Including Counterexamples) |
|---|---|---|---|
| Smart Decision Models | AI models that support leaders’ strategic decision-making by analyzing data on leadership performance and potential, enabling informed decisions to sustain leadership talent. | 7/25 | “An essential tool in sustaining leadership talent… allows the identification of outstanding leaders who demonstrate high potential for long-term growth and development.” (Participant 1) |
| Analysis of Personal and Professional Data of Leaders | AI-driven analysis of leaders’ personal and professional records to identify growth potential and inform targeted development. | 6/25 | “Artificial intelligence can be employed to analyze the personal and professional data of leaders… and then design customized training and development programs for them.” (Participant 9) |
| Designing Customized Training Programs | Using AI to evaluate performance and automatically design tailored leadership training programs for individuals based on their strengths and growth areas. | 5/25 | “Algorithms can be developed in AI to evaluate performance, identify leadership traits, and design specialized training programs for each leadership talent.” (Participant 5) |
| Simulation and Feedback Evaluation | Simulating real-world leadership challenges and analyzing participant responses to improve decision-making and leadership skills. | 4/25 | “Exploiting simulation tools in developing leadership scenarios… evaluate their reactions and solutions to them.” (Participant 5) |
| Institutional Impact Analysis and ROI Assessment | Using AI to measure the organizational impact of leadership decisions and assess the return on investment from leadership development programs. | 3/25 | “AI also helps assess return on investment by comparing the costs spent on developing leadership skills with the results achieved, such as improving efficiency or increasing productivity.” (Participant 5) |
| Theme | Definition | Frequency (Out of 25 Participants) | Representative Quotes (Including Counterexamples) |
|---|---|---|---|
| Use of Quantitative and Qualitative Indicators | Employing a combination of numerical metrics and qualitative assessments to evaluate AI’s impact on leadership development. | 7/25 | “Need to use quantitative, qualitative, institutional, professional development indicators, and return on investment in leadership.” (Participant 5) |
| Tracking Leaders’ Performance Over Time | Monitoring actual performance, achievements, and contributions of leaders after employing AI tools. | 8/25 | “Following up the performance of leaders discovered using AI and comparing their professional development and contribution to achieving long-term strategic goals.” (Participant 9); “Evaluating the performance of leaders before and after the program.” (Participant 14) |
| Institutional Performance Indicators | Using organizational-level metrics to assess the broader impact of AI-developed leadership on institutional goals and efficiency. | 4/25 | “Analyzing the institution’s performance and performance indicators.” (Participant 11) |
| AI-Supported Platforms and Knowledge Bases | Using AI-enabled platforms to record leaders’ decisions, track progress, and build cumulative knowledge for leadership development. | 4/25 | “Platforms supported by AI tools programmed to analyze leaders’ responses and record their decisions… contributes to building a knowledge base.” (Participant 1) |
| Beneficiary Feedback and Satisfaction | Gathering perceptions and satisfaction levels from participants of AI-designed leadership programs to assess effectiveness. | 3/25 | “Measuring the satisfaction of beneficiaries of training programs designed with AI tools.” (Participant 2) |
| Long-Term Planning and Cumulative Evaluation | Integrating follow-up stages, technology updates, and ongoing measurement to ensure sustainability of leadership talent over time. | 3/25 | “Developing a future plan after each stage… measuring results and indicators over time.” (Participant 6, 3, 7) |
| Field and Practical Evaluation Tools | Using direct observation, supervisory visits, and comparison of pre- and post-intervention performance as practical measures of AI effectiveness. | 3/25 | “Use of supervisory visit forms… measuring the performance of subordinates… comparing the current situation of leadership before and after use.” (Participants 12, 16) |
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AL-Housni, H.A.; Abunaser, F.; Bani-Oraba, A.M.N.; Al Harthy, R.A.H. To What Extent Can Artificial Intelligence Sustain Leadership Talents in Education? Voices of Educational Leaders and Experts. Educ. Sci. 2026, 16, 601. https://doi.org/10.3390/educsci16040601
AL-Housni HA, Abunaser F, Bani-Oraba AMN, Al Harthy RAH. To What Extent Can Artificial Intelligence Sustain Leadership Talents in Education? Voices of Educational Leaders and Experts. Education Sciences. 2026; 16(4):601. https://doi.org/10.3390/educsci16040601
Chicago/Turabian StyleAL-Housni, Houda Abdullha, Fathi Abunaser, Asma Mubarak Nasser Bani-Oraba, and Rayya Abdullah Hamdoon Al Harthy. 2026. "To What Extent Can Artificial Intelligence Sustain Leadership Talents in Education? Voices of Educational Leaders and Experts" Education Sciences 16, no. 4: 601. https://doi.org/10.3390/educsci16040601
APA StyleAL-Housni, H. A., Abunaser, F., Bani-Oraba, A. M. N., & Al Harthy, R. A. H. (2026). To What Extent Can Artificial Intelligence Sustain Leadership Talents in Education? Voices of Educational Leaders and Experts. Education Sciences, 16(4), 601. https://doi.org/10.3390/educsci16040601

