NURS FPX 6109 Assessment 4 Vila Health: Implementing New Educational Technology
Student Name Capella University NURS-FPX 6109 Integrating Technology into Nursing Education Prof. Name Date Vila Health: Implementing New Educational Technology This presentation outlines a strategic proposal to integrate advanced educational technologies into clinical training at Cincinnati Children’s Hospital. The objective is to modernize nursing education, strengthen clinical competencies, and ultimately improve pediatric patient outcomes through immersive and adaptive learning systems. Implementation of Proposed Educational Technology What technologies are most suitable for enhancing nursing education and clinical practice? Advanced tools such as virtual reality (VR), augmented reality (AR), and adaptive mobile learning systems have demonstrated strong potential in healthcare education. These technologies enable experiential learning environments where clinical staff can practice procedures safely without patient risk. VR and AR facilitate simulation-based training, allowing nurses to refine procedural skills and critical decision-making. Meanwhile, adaptive mobile platforms provide flexible, personalized learning pathways accessible both onsite and remotely. Collectively, these tools: Adopting these technologies represents a transformative shift in how clinical education is delivered within Cincinnati Children’s Hospital. Steps in a Plan to Implement Changes in Existing Technologies Assessment and Stakeholder Engagement How should the organization initiate the implementation process? A structured needs assessment should be conducted to evaluate current educational systems and identify performance gaps. This analysis ensures that new technologies directly address deficiencies in learning outcomes and clinical competency. Stakeholder involvement is essential and should include: A dedicated implementation task force will oversee execution, ensuring accountability and timely problem resolution while aligning the initiative with institutional goals. NURS FPX 6109 Assessment 4 Vila Health: Implementing New Educational Technology Technology Selection and Pilot Testing How will appropriate technologies be selected and validated? Technology selection should be guided by usability, scalability, and evidence-based effectiveness. Following selection, pilot programs should be deployed in targeted training areas, such as: Feedback from pilot testing will inform refinements prior to full-scale implementation. Integration with existing learning management systems is critical to ensure seamless adoption and real-time accessibility (Nawaz et al., 2024). Training and Continuous Evaluation How will staff be prepared to use these technologies effectively? Comprehensive training programs must be implemented to build user competency. These should include structured workshops, guided simulations, and ongoing technical support. Continuous evaluation mechanisms will: Additionally, immersive learning modules incorporating gamification and AR-based scenarios will enhance engagement and critical thinking (Nawaz et al., 2024). Contingency Planning and Full-Scale Deployment What measures will address potential risks during implementation? Risk mitigation strategies should address: A phased rollout approach will allow iterative improvements based on user feedback, ensuring sustainable integration and long-term success (Nawaz et al., 2024). Resource Requirements for a Successful Technology Change Implementation Human Resources What personnel are required for successful implementation? Effective deployment requires interdisciplinary expertise, as outlined below: Role Key Responsibilities Nurse Educators Develop and integrate technology-based curricula IT Specialists Install, customize, and maintain systems Clinical Trainers Conduct hands-on training sessions Project Manager Oversee timelines, budgets, and coordination Evaluation Specialists Assess impact on learning and patient outcomes These roles collectively ensure operational efficiency and educational effectiveness (Aebersold & Dunbar, 2021; Groenier et al., 2023). Capital and Resource Requirements What financial and technical resources are necessary? Implementation requires substantial investment in both hardware and software infrastructure. Resource Category Estimated Cost (Year 1) Hardware (VR/AR devices, servers) $250,000 Software Licenses $150,000 Training Programs $75,000 Evaluation & Monitoring Included in remaining budget Total Estimated Cost $475,000 Additional considerations include: Secure data management systems and vendor agreements will ensure compliance, reliability, and continuous system upgrades (Syed et al., 2023). The End-User Training Requirements What are the training needs of nursing staff? Although nursing personnel are generally familiar with basic digital tools, proficiency in immersive technologies such as VR and AR remains limited. Therefore, training must initially focus on foundational competencies and practical applications in pediatric care. Key expectations include: Training delivery methods should include: Ongoing support through refresher sessions, help desks, and digital resources will ensure sustained competency and adaptability to technological updates (Alam & Mohanty, 2023; Zhang et al., 2023; Muharlisiani et al., 2024). A Plan to Evaluate the Effectiveness of a Technology Change How will the effectiveness of the implemented technologies be measured? Evaluation should be systematic and data-driven, focusing on three primary domains: NURS FPX 6109 Assessment 4 Vila Health: Implementing New Educational Technology Evaluation Area Measurement Approach Staff Proficiency Pre- and post-assessments; competency checklists Clinical Decision-Making Scenario-based evaluations and simulations Patient Outcomes Error rates, recovery times, patient satisfaction Data collection sources will include: Positive trends in these metrics will indicate successful implementation, whereas identified gaps will guide iterative improvements in both technology use and training design (Bernacki et al., 2020; Moghadam et al., 2024; Horn et al., 2020). Conclusion The integration of VR, AR, and adaptive mobile learning technologies represents a forward-looking strategy to enhance nursing education at Cincinnati Children’s Hospital. Through structured planning, stakeholder engagement, targeted training, and continuous evaluation, the organization can successfully embed these innovations into clinical practice. This initiative not only strengthens workforce competency but also contributes to improved patient care outcomes and organizational excellence. Ongoing assessment and refinement will ensure that educational practices remain aligned with evolving healthcare demands, reinforcing the hospital’s commitment to high-quality pediatric care. References Alam, A., & Mohanty, A. (2023, January). Learning on the Move: A Pedagogical Framework for State-of-the-Art Mobile Learning. In International Conference on Data Management, Analytics & Innovation (pp. 735–748). Springer Nature Singapore. Bernacki, M. L., Greene, J. A., & Crompton, H. (2020). Mobile technology, learning, and achievement: Advances in understanding and measuring the role of mobile technology in education. Contemporary Educational Psychology, 60(1), 101827. https://doi.org/10.1016/j.cedpsych.2019.101827 NURS FPX 6109 Assessment 4 Vila Health: Implementing New Educational Technology Groenier, M., Spijkerboer, K. G. P., Venix, L., Bannink, L., Yperlaan, S., Eyck, Q., van Manen, J. G., & Th. Miedema, H. A. (2023). Evaluation of the impact of technical physicians on improving individual patient care with technology. BMC Medical Education, 23(1). https://doi.org/10.1186/s12909-023-04137-z Horn, A., Kaneshiro, K., & Tsui, B. C. H. (2020). Preemptive and preventive pain psychoeducation and its potential application as a multimodal perioperative pain control option. Anesthesia & Analgesia, 130(3), 559–573. https://doi.org/10.1213/ane.0000000000004319 Moghadam, M. H., Tehranineshat, B.,
NURS FPX 6109 Assessment 3 Educational Technologies Comparison
Student Name Capella University NURS-FPX 6109 Integrating Technology into Nursing Education Prof. Name Date Educational Technologies Comparison The integration of virtual reality (VR) into nursing education has become an increasingly important strategy for strengthening clinical competence and academic excellence within Master of Science in Nursing (MSN) programs. As healthcare systems demand more advanced clinical decision-making and technical proficiency, VR-supported learning environments provide structured opportunities for experiential learning without exposing patients to risk. These technologies enable realistic simulation of clinical situations, thereby improving learner preparedness and supporting competency-based education (Altmiller & Pepe, 2022). This analysis examines two distinct VR platforms—MindMotion Pro and Osso VR—both of which contribute to healthcare education but serve different instructional purposes. MindMotion Pro is primarily designed for neurological rehabilitation, whereas Osso VR focuses on surgical skills training. The comparison highlights how each system can be strategically integrated into MSN curricula to enhance both psychomotor skills and clinical judgment in a controlled, evidence-based learning environment. Comparison of Two Different Educational Technologies MindMotion Pro MindMotion Pro is a VR-enabled rehabilitation platform developed to support patients recovering from neurological impairments. It delivers structured, immersive therapy sessions that focus on improving both motor coordination and cognitive functioning. The system allows clinicians to design individualized rehabilitation plans and monitor patient performance through continuous data tracking. A key strength of MindMotion Pro is its real-time feedback mechanism, which enables healthcare professionals to adjust therapy based on measurable progress indicators. This promotes adaptive care planning and strengthens patient engagement through interactive rehabilitation experiences (Dhar et al., 2023). Additionally, its controlled virtual environment enhances safety while maintaining consistency in therapeutic delivery (Hartman et al., 2024). Osso VR Osso VR is a high-fidelity surgical training platform that replicates real operating room environments for immersive procedural practice. It is widely used in medical education to develop technical surgical competencies without exposing patients to clinical risk. The platform provides interactive simulation-based training, allowing learners to repeatedly practice surgical procedures while receiving structured feedback. This iterative learning process supports skill refinement and clinical confidence. Osso VR also incorporates performance analytics, enabling objective evaluation of learner progress and decision-making accuracy (Kim & Ahn, 2021). These features contribute to competency development in a safe, standardized training environment (Hartman et al., 2024). Comparative Overview of MindMotion Pro and Osso VR Although both platforms utilize immersive VR technology, their educational applications differ significantly. MindMotion Pro is centered on neurorehabilitation and patient recovery, while Osso VR is designed for procedural and surgical training. Each system aligns with distinct learning outcomes within healthcare education. MindMotion Pro emphasizes rehabilitation planning and progress tracking, supporting individualized therapeutic interventions based on patient response patterns (Di Natale et al., 2020). In contrast, Osso VR prioritizes procedural accuracy and surgical preparedness through realistic simulation-based learning environments (Lee et al., 2020). The primary distinction lies in their application domains—therapeutic rehabilitation versus surgical skill acquisition. NURS FPX 6109 Assessment 3 Educational Technologies Comparison Feature, Capability, and Benefit Comparison Table Feature MindMotion Pro Osso VR User Interface Therapy-centered interface supporting individualized rehabilitation pathways Immersive surgical interface replicating operating room environments Interactivity Adaptive rehabilitation exercises tailored to patient needs Interactive surgical simulations with procedural decision-making Device Compatibility Works across multiple devices and display systems Compatible with multiple VR headsets and simulation hardware Assessment System Tracks patient rehabilitation progress using structured metrics Provides performance-based evaluation with real-time feedback Multimedia Use Integrates multimedia tools to enhance therapeutic engagement Uses realistic 3D models and surgical visuals for training Learning Analytics Basic monitoring of patient recovery trends Advanced analytics for surgical skill assessment Cost Structure Flexible pricing models based on institutional requirements Subscription-based model with customizable training packages Assumptions This comparison assumes that healthcare institutions select VR technologies based on curriculum needs, financial capacity, and instructional goals. Decision-making is influenced by usability, technological compatibility, and intended learning outcomes. MindMotion Pro is generally more appropriate for rehabilitation-focused education, whereas Osso VR aligns with procedural and surgical training priorities (Di Natale et al., 2020). These assumptions reflect variability in institutional priorities and resource allocation. Benefits and Limitations of Educational Technology Comparison A key advantage of evaluating VR platforms is that it supports informed decision-making in selecting appropriate instructional tools. Such comparisons promote evidence-based integration of technology into nursing education and encourage innovation in teaching methodologies (Liu et al., 2023). However, limitations exist in comparative evaluations, particularly the potential underrepresentation of unique platform strengths that may emerge in specific clinical contexts. Additionally, effectiveness may vary depending on institutional infrastructure, user familiarity, and pedagogical design (Shorey et al., 2020). Therefore, contextual adaptability remains a critical consideration. Teaching and Learning Applications in Educational Settings MindMotion Pro is particularly effective in teaching rehabilitation techniques for neurological conditions. It is best suited for instructional environments focused on restoring cognitive and motor functions through structured therapeutic simulation (Stoumpos et al., 2023). Osso VR, on the other hand, is highly effective for teaching surgical procedures, intraoperative decision-making, and team-based collaboration in simulated operating rooms. Its design supports procedural repetition and skill mastery in a risk-free environment (Stoumpos et al., 2023). Effective adoption of both platforms depends on usability, adaptability, and alignment with curriculum objectives (Mulders et al., 2020). Integration of VR Platforms in MSN Programs The incorporation of VR technologies into MSN programs significantly enhances experiential learning outcomes. MindMotion Pro can be embedded into neuroscience and rehabilitation modules to strengthen students’ understanding of therapeutic interventions and patient progress monitoring (Lee et al., 2020). Similarly, Osso VR can be integrated into advanced clinical training modules to provide immersive surgical simulations that improve technical proficiency and clinical confidence (Kim & Ahn, 2021). These applications collectively contribute to stronger clinical preparedness and improved patient care outcomes through structured experiential learning. Conclusion The adoption of VR technologies such as MindMotion Pro and Osso VR represents a meaningful advancement in nursing education. While MindMotion Pro strengthens neurological rehabilitation training, Osso VR enhances surgical education through immersive simulation. When appropriately aligned with curricular objectives, these technologies support competency development, clinical reasoning, and safe skill acquisition in MSN programs (Bondy et al., 2021).
NURS FPX 6109 Assessment 2 Vila Health: The Impact of Educational Technology
Student Name Capella University NURS-FPX 6109 Integrating Technology into Nursing Education Prof. Name Date The New Educational Technology Description This initiative outlines how Cincinnati Children’s Hospital Medical Center can enhance nursing education and clinical performance through the adoption of advanced educational technologies. The proposed solutions include adaptive mobile learning systems equipped with real-time analytics embedded into clinical workflows, alongside immersive training tools such as Virtual Reality (VR) and Augmented Reality (AR). These technologies aim to replicate near-authentic clinical environments, particularly for pediatric care scenarios that require high precision and safety awareness. By enabling continuous, flexible learning and reducing dependency on traditional classroom-based instruction, the approach addresses gaps in accessibility, scalability, and practical exposure. Collectively, these innovations are expected to strengthen clinical competence while supporting the hospital’s broader mission of delivering high-quality pediatric care (Iqbal & Campbell, 2023). Strategic Alignment of Proposed Educational Technology Changes The proposed digital learning transformation aligns closely with Cincinnati Children’s Hospital Medical Center’s mission of advancing pediatric health through innovation, education, and evidence-based care delivery. The integration of adaptive mobile learning systems, real-time performance dashboards, and immersive VR/AR simulations supports a continuous learning environment across all clinical settings. These technologies reinforce a culture of sustained professional development by enabling staff to engage in “always-on” learning experiences that are accessible at the point of care. In addition, they enhance clinical decision-making by providing structured knowledge reinforcement and simulation-based practice opportunities. This alignment strengthens organizational values such as innovation, collaboration, and patient-centered care, ultimately improving safety outcomes, staff competence, and service quality. The Impact of Proposed Technology Changes on the Organization The introduction of advanced educational technologies is expected to produce measurable improvements in both clinical outcomes and organizational efficiency. Mobile-based learning platforms, combined with simulation-driven training (VR/AR), allow nurses to engage in realistic clinical scenarios without risk to patients. This strengthens experiential learning and supports skill retention. Real-time performance analytics also enable leadership to identify skill gaps early and implement targeted interventions, improving workforce capability and reducing variability in care delivery. Furthermore, increased accessibility to training contributes to higher job satisfaction and professional confidence among nursing staff (Sendak et al., 2020). Table 1 Organizational and Clinical Impact of Educational Technology Domain Technology Application Expected Outcome Clinical Practice VR/AR simulation training Improved procedural accuracy and decision-making Workforce Development Mobile adaptive learning platforms Continuous skill enhancement and flexibility Performance Management Real-time analytics dashboards Early identification of competency gaps Patient Outcomes Evidence-based digital training Reduced errors and improved safety indicators Organizational Image Digital innovation in education Strengthened reputation in pediatric healthcare From an institutional perspective, these innovations enhance the hospital’s reputation as a leader in pediatric education and clinical excellence. Improved training systems contribute to better patient satisfaction, stronger safety performance, and increased competitiveness within the healthcare sector. Long-term benefits include reduced clinical errors, improved knowledge retention, and sustained improvements in care quality (Kuzmenko et al., 2023). Nurse Educator’s Responsibility in Technology Implementation Nurse educators play a central role in ensuring successful adoption and integration of educational technologies within clinical training systems. Their responsibilities begin with assessing learning needs and extend to designing instructional strategies that incorporate digital tools such as VR/AR and mobile learning platforms. They are also responsible for facilitating training sessions, guiding learners through simulation-based experiences, and ensuring that staff can effectively translate simulated learning into real clinical practice (Aebersold & Dunbar, 2021). NURS FPX 6109 Assessment 2 Vila Health: The Impact of Educational Technology Table 2 Roles of Nurse Educators in Technology Integration Responsibility Area Key Activities Expected Contribution Curriculum Design Integration of VR/AR and mobile tools Technology-aligned learning pathways Training Delivery Simulation facilitation and coaching Improved learner engagement Evaluation Performance tracking and feedback analysis Evidence-based improvement Support Functions Troubleshooting and learner support Reduced barriers to adoption Change Leadership Promoting innovation culture Organizational readiness for digital learning In addition, educators evaluate training effectiveness through performance outcomes, learner feedback, and patient care indicators. They also address implementation challenges such as technological limitations or resistance to change. By serving as change facilitators, nurse educators ensure that digital learning tools are embedded into routine practice and aligned with institutional goals of continuous improvement and evidence-based care (Dicheva et al., 2023). How Technology Changes Will Be Incorporated into Current Design The integration of new educational technologies will be embedded into both existing and future nursing education frameworks at Cincinnati Children’s Hospital Medical Center. Current continuing education programs will be enhanced with VR-based simulations for high-risk clinical procedures, mobile learning platforms for flexible access, and analytics tools for personalized learning pathways. Future curriculum design will incorporate these technologies from the outset, ensuring that digital learning is not supplementary but foundational. This includes the use of AR-guided procedural training, interactive simulations, and gamified assessment models that improve engagement and knowledge retention. Table 3 Integration of Educational Technologies into Nursing Programs Program Component Technology Integration Educational Benefit Continuing Education Mobile adaptive learning Flexible, on-demand skill development Clinical Simulation VR-based scenario training Safe practice of high-risk procedures Procedural Training AR-guided instruction Enhanced procedural accuracy Assessment Methods Gamified digital evaluations Improved engagement and retention Performance Tracking Real-time analytics Data-driven competency improvement Ongoing evaluation mechanisms will link educational performance with clinical outcomes, ensuring that training effectiveness translates into improved patient care, stronger clinical judgment, and organizational efficiency (Nawaz et al., 2024). Conclusion The adoption of advanced educational technologies such as VR, AR, and adaptive mobile learning represents a strategic advancement for Cincinnati Children’s Hospital Medical Center. These tools strengthen nursing education by improving accessibility, enhancing clinical preparedness, and supporting continuous professional development. By aligning technological innovation with institutional mission and values, the hospital can improve patient safety, increase staff competency, and reinforce its position as a leader in pediatric healthcare. Over time, these improvements are expected to produce sustained gains in care quality, operational efficiency, and organizational performance. References Aebersold, M., & Dunbar, D. M. (2021). Virtual and augmented realities in nursing education: State of the science. Annual Review of Nursing Research, 39(1), 225-242. https://books.google.com/books?hl=en&lr=&id=rHwSEAAAQBAJ&oi=fnd&pg=PA225&dq=.+Nurse+educators+will+also+be+involved+in+training+participants+using+VR/AR+simulations+and+the+mobile+platforms+where+the+training+tools+will+be+offered&ots=I_rQxnHkmR&sig=wkof_sCh9e9DmrngcS1bnpYqGbY NURS FPX 6109 Assessment 2 Vila Health: The Impact of Educational Technology
NURS FPX 6109 Assessment 1 Vila Health: Educational Technology Needs Assessment
Student Name Capella University NURS-FPX 6109 Integrating Technology into Nursing Education Prof. Name Date Educational Technology Assessment Needs Conducting a structured assessment of educational technology requirements is a critical responsibility for nursing leadership, particularly when aiming to strengthen continuing professional development (CPD) systems. As digital tools become more embedded in global healthcare education, nursing training programs are increasingly dependent on effective technology integration. However, despite rapid technological expansion, many clinical educators and nursing staff continue to experience barriers related to access, usability, and optimal application of digital learning tools. This assessment examines the educational technology requirements of nursing personnel at Cincinnati Children’s Hospital Medical Center. The primary objective is to identify gaps in current systems and propose improvements that enhance clinical competency, support evidence-based pediatric care, and promote sustained professional development. Current Use of Educational Technology in Nursing Practice At Cincinnati Children’s Hospital Medical Center, educational technology is primarily delivered through a centralized Continuing Education Portal. This system provides nurses with continuous access to digital learning resources, including recorded Grand Rounds, instructional videos, certification programs, and continuing medical and nursing education (CME/CNE) opportunities. The platform also supports registration for learning activities, progress tracking, and certificate retrieval, while simulation-based and emergency preparedness training enhances hands-on clinical skill development (Cincinnati Children’s, 2024). Despite these capabilities, there remains limited clarity regarding how effectively these tools are embedded into everyday clinical workflows. Data on user engagement patterns, course completion behavior, and direct impact on clinical performance is not comprehensively captured. Additionally, disparities may exist in how different nursing staff interact with the platform, particularly due to technical constraints, workload pressures, or variable digital literacy levels. Comparison Between Current and Desired Educational Technology State Current State of Educational Technology Use Nursing staff currently rely on the Continuing Education Portal as the main digital learning infrastructure. It offers 24/7 access to training modules, archived educational content, simulation resources, and credentialing programs (CME/CNE). Nurses can monitor progress, enroll in courses, and download completion records. However, limitations remain in how effectively the system evaluates learning outcomes. There is insufficient analysis of engagement depth, completion consistency, and the extent to which educational content translates into clinical performance improvements. In addition, usability challenges and inconsistent integration into routine workflows may reduce overall effectiveness (Cincinnati Children’s, 2024). Desired State (Best Practice Model) Best practice standards in nursing education emphasize adaptive, learner-centered systems that integrate seamlessly into clinical environments. Ideal educational technologies should include mobile accessibility, personalized learning pathways, real-time performance feedback, and immersive simulation tools such as virtual or augmented reality. Furthermore, advanced systems should function as part of daily clinical practice, enabling immediate access to decision-support resources while also generating measurable data on competency development, clinical performance, and patient outcomes (Iqbal & Campbell, 2023). Gap Analysis: Current vs Desired State Aspect Current State Desired State Identified Gap User engagement & completion tracking Learning resources are available through the portal, but engagement analytics and completion tracking are limited Comprehensive analytics to monitor engagement, completion rates, and learning outcomes Lack of structured monitoring restricts evaluation of learning effectiveness Integration into clinical workflow Educational access exists but is not consistently embedded into daily nursing practice Real-time integration of learning tools within clinical workflows Weak alignment between training and immediate clinical application Accessibility and usability Platform is accessible 24/7 but may present usability or mobile access limitations Fully optimized, mobile-responsive, user-friendly system across all devices Technical and usability barriers reduce equitable access Advanced learning technologies Primarily video-based and archived content with limited interactivity Immersive simulation using VR/AR and interactive clinical scenarios Lack of immersive, experiential learning tools for skill development Evaluation of Metrics Used Currently, evaluation of educational technology effectiveness at Cincinnati Children’s Hospital Medical Center relies primarily on quantitative indicators such as course completion rates, logins, and resource access frequency. While these metrics provide baseline insights into participation, they do not adequately reflect clinical impact or long-term competency development. A major limitation is the absence of real-time feedback systems and weak linkage between training completion and actual clinical performance outcomes. As a result, the organization has limited ability to determine how educational engagement translates into improved patient care or nursing effectiveness. NURS FPX 6109 Assessment 1 Vila Health: Educational Technology Needs Assessment To strengthen evaluation quality, additional data points should be incorporated, including: Integrating these metrics with clinical performance data would enable a more evidence-based understanding of educational impact, aligning with implementation science principles in healthcare systems (Sendak et al., 2020). Organizational Mission Alignment with Educational Technology Educational technology use at Cincinnati Children’s Hospital Medical Center strongly aligns with the organization’s mission of improving pediatric health outcomes through innovation, research, and education. The integration of digital learning systems directly supports the hospital’s strategic aim of delivering high-quality, evidence-based care and enhancing patient experience (Cincinnati Children’s, n.d.). Continuous professional education ensures that nursing staff remain updated on evolving pediatric care standards and clinical best practices, which directly contributes to improved treatment outcomes and safety. In addition, digital learning environments promote a culture of continuous improvement and innovation by facilitating access to current research and advanced clinical knowledge (Kuzmenko et al., 2023). Recommendations for Enhancing Educational Technology To improve the effectiveness of educational technology systems, several strategic enhancements are recommended. The focus should shift toward real-time competency tracking, immersive learning, and stronger integration between education and clinical performance. Key recommendations include: Additionally, linking training outcomes with patient care quality indicators—such as reduced complications or improved recovery metrics—would provide a more direct measurement of educational effectiveness. These improvements would support the hospital’s broader goal of enhancing pediatric healthcare delivery through data-driven clinical education. References Cincinnati Children’s. (n.d.). About Cincinnati Children’s. https://www.cincinnatichildrens.org/about Cincinnati Children’s. (2024). Continuing professional education | Cincinnati children’s Hospital. https://www.cincinnatichildrens.org/professional/continuing-education NURS FPX 6109 Assessment 1 Vila Health: Educational Technology Needs Assessment Iqbal, M. Z., & Campbell, A. G. (2023). Real-time hand interaction and self-directed machine learning agents in immersive learning environments. Computers & Education X Reality, 3, 100038. https://doi.org/10.1016/j.cexr.2023.100038 Kuzmenko, A., Chernova, T. G., Kravchuk, O., Kabysh, M., & Holubenko, T. (2023). Innovative educational technologies: European experience and its