
Student name
Capella University
FPX 6112
Professor Name
Submission Date
Comparison of a Simulation Product or Process
The assessment will compare the following two nursing education simulation technologies: Sentinel U online simulation and high-fidelity manikin simulation. The focus will be on how each of the two simulations promotes the educational outcomes of critical thinking, clinical, and pharmacy skills. This assessment will enable the researcher to make the best choice within the following slide limitations: the best option of simulation technology, the best cost option, the best accessible option, the best simulation technology deeply engaging learners, and the best technology option in terms of the applicable taught pathophysiological considerations.
Environment for Simulation Technology
The simulation technology will be utilized within nursing education to enhance clinical decision-making, assessment, and pharmacological skills. The focus group will be nursing students in their clinical/practical rotations. This group needs both a theoretical component and practical experience that surpasses providing safe and competent care to patients (Sałacińska et al., 2025). This will be enhanced with the online simulation Sentinel U, which will introduce virtual patients and scenarios that will be integrated with physical assessment, pharmacology, and pathophysiology related to the Theory-of-the-Concept Framework.
Rationale for Comparing Simulation Products
The rationale for the comparison of simulation technologies is to determine which of the available tools best meets the specific learning objectives in nursing education. One of the simulations will involve a high-fidelity manikin where learners will have some level of contact with a physical model and therefore some level of physical interaction (Lucas et al., 2024). The rationale for the comparison is the need to adopt the most effective and most efficient strategy to integrate theory and practice. While the Sentinel U simulation is flexible, easy, and cost-efficient, the high-fidelity manikin promotes learning through practice, which is a requisite to developing clinical skills. Comparing the two simulation products leads to the most appropriate and most balanced approach to the education of the students.
Comparison of Simulation Technologies
This paper contrasts the online simulation at Sentinel U and high-fidelity manikin simulation. It also contrasts traditional manikin simulation, where users interact with physical models that provide tactile feedback. This comparison was drawn in the context of finding the best and most effective method of integrating theoretical and practical knowledge (Cant & Ryan, 2022). The simulation at Sentinel U is more convenient, viable, and inexpensive, while a high-fidelity manikin allows practical learning of skills that are of utmost importance in clinical practice.
Features, Capabilities, and Benefits
Sentinel U online simulation includes virtual patient cases, where students gather data and assess the patient. It is also where students identify signs and symptoms and/or generate an evidence-based decision. It is more convenient and inexpensive, and practice is possible (Sans et al., 2022). This type of simulation promotes the learning of the students and, in many cases, involves critical thinking since the decisions are presented in real-time, thus enhancing clinical judgment. High-fidelity manikin simulation, on the other hand, is more hands-on and is more immersive. It simulates the actual responses of the patient to an intervention and, for example, a change in vital signs, and/or to a breathing and/or heart sounds simulation. This simulation is of great importance in the development of practical skills since it encompasses the assessment of a patient and the measurement of blood pressure and auscultation, among others (Burnett & Fiebert, 2024). The greatest advantage of this simulation is that it permits students to interact with clinical equipment and patients, thereby providing them with improved procedural skills and patient care.
Rationale for Effectiveness and Efficiency
The Sentinel U simulation better utilizes theoretical frameworks and decision-making modeling where real resources and spaces for physical manikins are constrained. It promotes distance learning and offers a range of learning opportunities for the students. Conversely, the high-fidelity manikin is better placed for the learning of hands-on and more sophisticated procedures that require direct application with a patient. This is especially important when a learner requires training to master the nuances of physical assessment (Aebersold & González, 2023). The two simulations are used in varying contexts, but the high-fidelity manikin is more effective in developing the clinical skills that require physical contact and is thus important for the learner who needs to engage in physical assessment and clinical intervention.
Impact of Simulation Technologies on Educational Outcomes
The Sentinel U online simulation has an effect on the retention of knowledge and on the learner’s ability to think critically. It offers the learner the opportunity to participate in a virtual setting to build their knowledge of physical assessment, as well as the pharmacological and pathophysiological processes. The feedback that is generated in real time encourages the learner to review and reflect on their decisions to improve their clinical reasoning. The ability to replay scenarios also supports the retention of clinical knowledge. The online simulations are effective in promoting the cognitive aspect of learning, reasoning, and critical thinking, and are especially valuable in the field of nursing.
The primary focus of high-fidelity manikin simulation is the advancement of clinical skills. Students can perform elements of a physical assessment and the administration of clinical procedures, among other tasks, in a lower-risk and less threatening educational environment. These manikins offer real-time feedback to the learner about physical interventions occurring in the learning setting, thus helping the learner refine the intervention and its associated techniques (Sałacińska et al., 2025). This technology encourages the advancement of touch-related learning and allows students to perform complex clinical procedures error-free.
Rationale for the Comparison
Comparing the Sentinel U online simulation and high-fidelity manikin simulation reveals the unique learning outcomes that each technology supports. In the absence of real clinical equipment, critical thinking and the foundation of theoretical knowledge can be learned through the use of the Sentinel U simulation. On the other hand, high-fidelity manikins support the development of practical clinical skills. However, the learning environment’s configurations, including the stress of the simulated environment and the real-time observation of clinical participants, are important (Aebersold & González, 2023). These technologies support nursing education in complementary and unique ways, and together, they offer the most integrated approach to skills training.
Comparison of Educational Outcomes
There are similarities and differences in how the Sentinel U online simulation and the high-fidelity manikin simulation impact the design and evaluation of knowledge, clinical skills, and critical thinking. High-fidelity manikin simulation concerns clinical skills, whereas the Sentinel U online simulation offers undergraduate students virtual patients. Students evaluate the virtual patients’ symptoms and make decisions based on theoretical knowledge. This virtual simulation aids clinical skills through repetition and reflection of the case and supports the theory learned in the lecture. High-fidelity manikin simulation aids students in practicing real-life clinical interventions, including physical examinations and the administration of medications and emergency interventions. The manikin modifies its behavior based on the students’ actions, thus assisting with the development of physical clinical skills (Cant & Ryan, 2022). Additionally, both forms of technology assist in the development of critical thinking. However, the high-fidelity manikin simulation aids clinical judgment more than the online simulation.
Metrics for Assessing Outcomes
Different metrics are needed to assess the effectiveness of each type of simulation. For Sentinel U, metrics for assessment will be checklists and scores from examinations and quizzes designed to appraise students’ Clinical Judgment and Critical Thinking (Palaganas et al, 2024). Assessment of engagement and scores are also important, as are the satisfaction and perceived value of the simulation expressed by the learners. In the high-fidelity manikin, through checklists, direct assessment by the instructor occurs after students have performed the required physical assessments. Students’ assessment of performance may also be evaluated using scores of the examinations administered after the completion of the required physical task.
Pre-Simulation Preparation and Post-Simulation Debriefing
Sentinel U students are required to complete assigned readings and participate in a briefing prior to the simulation. The briefing is held to prepare students for the specific patient case scenario. Post-simulation debriefings involve discussions and feedback regarding the self-reflective assessment of the decision-making process (Chakal, 2024). While preparing for the simulation, a verbal description and/or instructional video of the intervention may be used to explain the procedure when utilizing the high-fidelity manikin. The debriefing focuses on technical skills and clinical reasoning, as well as what the students did well and areas of improvement.
Teaching Physical Assessment Skills
The Sentinel U program utilizes virtual technology to situate learners within symptomatic contexts, encouraging them to analyze and interpret data to drive their decisions. For instance, learners within the program could engage a virtual patient to take an interactive read, learn about the symptomatology of case hypertension, and choose contextually appropriate actions (Lucas et al., 2024). Furthermore, high-fidelity virtual manikins allow learners to practice assessment skills such as auscultation and the assessment of patency via the respiratory or vascular system. As an additional example, a student using a virtual manikin to assess case blood pressure in conjunction with the learning of assessment reporting or access to the appropriate blood pressure assessment significantly aids the learner in the development of the psycho motor skills of the assessment.
Teaching Physical Assessment
The Sentinel U online simulation develops physical assessment skills by describing virtual patients and requiring the assessment of clinical symptoms, the collection of clinical data, and the exercise of clinical judgment. Although it does not provide traditional assessment-related experiences, students review the virtual patients’ histories, conduct virtual assessments, and synthesize/interpret clinical data (Sans et al., 2022). For instance, students analyze a virtual patient’s assessment of blood pressure and the symptoms associated with case hypertension, and make intervention-related decisions based on their assessment findings. While it enhances the cognitive dimension and the related assessment and decision-making skills, it does not address the physical component of assessment techniques such as palpation and auscultation.
The high-fidelity manikin simulation enhances physical assessment skills through active learning via a lifelike mannequin (Sałacińska et al., 2025). Students perform assessments, physical examinations, and procedures through the administration of numerous interventions, including the assessment of vital signs, auscultation, and, for example, the administration of CPR. Students also interpret feedback to improve their assessment techniques. For example, students are able to measure blood pressure, conduct a respiratory assessment, and examine the limbs for signs of peripheral edema while receiving feedback for each measurement or assessment.
Effectiveness of Simulations in Refining Assessment Techniques
Incorporating a VIRTUES simulation (Sentinel U) into a learning program aids in the development of assessment skills through the practice of assessment and analysis of clinical data; however, it is developed without the need for a physical component and, therefore, does not assist in the development of tactile skills (Cant & Ryan, 2022). The use of high-fidelity manikins provides effective assessment and the ability to practice physical assessment and provide real-time feedback. High-fidelity manikins also allow assessment to be repeated, which aids in the development of assessment skills and introduces the concept of physical assessment with an accurate degree of procedural assessment.
Integration of Pharmacological Concepts
The online simulation by Sentinel U incorporates pharmacological theory by developing case studies that contain virtual patients requiring medication management. The student analyzes the patient’s medication history, current medication, and patient presenting symptoms, and subsequently makes a decision regarding drug therapy. An example may include a scenario requiring students to analyze the effects of antihypertensive medications on a patient who presents with symptoms of peripheral neuropathy (Burnett & Fiebert, 2024). While the simulation focuses on the mechanism of action of drugs and the rationale and appropriateness of the pharmacological intervention, it does not address the real-time administration of the medication or the response of the patient to the drug.
The Sentinel U simulation allows users to learn about the mechanisms of drugs and the possible responses of patients in a safe environment. It does, however, lack the actual process of delivering the drug and observing the patient responses (Aebersold & Gonzalez, 2023). The high-fidelity manikin is better at aiding user understanding about drug mechanisms and patient responses to the delivered drugs due to its nature of allowing users to interact with the patient model. Drug mechanisms, actions, and reactions with the patient are embedded in the case presentation in the Sentinel U simulation. The users are able to interpret the orders, actions, and reactions, as well as the case presentation. In the simulation, users receive feedback that strengthens their understanding of the drug’s mechanism of action, the safe dosage, and the rationale for the action. Unlike the high-fidelity manikin, users of the high-fidelity simulation are able to prepare the action and deliver the drug, either by oral, IV, or IM routes. Unlike the other simulations, the users are able to observe the patient and gain an understanding of the patient responses (Aebersold & Gonzalez, 2023). This type of learning aids users in gaining understanding and learning the skill of responding to the patient.
Teaching Pathophysiological Concepts
The Sentinel U online simulation uses a virtual patient system to teach pathophysiological concepts. The system requires students to analyze symptoms, compile a differential diagnosis, examine pertinent patient history, and evaluate the disease processes. Take the example of a student who sees a virtual patient with both peripheral neuropathy and a diagnosis of hypertension. This student must consider and understand the chronic effects of hypertension that cause intermediate vascular damage and subsequent neuropathy (Palaganas et al., 2024). The simulation explains the mechanisms of disease and promotes the development of a treatment plan; however, the simulation is limited to the static presentation of the patient’s condition, thereby inhibiting the development of pathophysiological concepts.
The high-fidelity manikin simulation provides an interactive way to learn pathophysiology through its ability to render real-time physiological responses. If students choose to perform a physical assessment or administer a drug, they will gain insight into how diseases such as diabetes and hypertension react through various signs, symptoms, and responses. For example, students can understand what the disease does to the patient when they see the manikin’s blood pressure and heart rate response to the administration of an antihypertensive.
Understanding Disease Processes and Patient Care Implications
Learners using the Sentinel U simulation gain a stronger understanding of the theory behind disease processes. This is accomplished through the analysis of case studies and symptom assessment, which leads to pathophysiological decision-making. As stated by the author, the simulation does not have the ability to show patient feedback as a response to an intervention (Chakal, 2024). The high-fidelity manikin simulation gives students the opportunity to understand the theory behind the disease process, as well as the implications it has on the patient, through real-time feedback on the effects of the intervention and disease process. This feedback demonstrates to students the impact of the disease and the corresponding care that is necessary.
Challenges and Benefits of Each Simulation Technology
Remote access, engagement, and cost are some of the benefits of the online simulations offered by Sentinel U. The online format provides an asynchronous option for engaging the learners, removing the need for a dedicated space or a large amount of supplies. The online simulations also provide a way to repeat scenarios, which can aid the learners in reinforcing clinical judgment and cognitive load. Some of the challenges include loss of tactile learning due to a lack of physical interaction and possible disengagement due to the comparative degree of technological engagement versus hands-on learning (Lucas et al., 2024). The technology is cloud-based, which can relieve some storage concerns, and its useful life can be extended due to regular updating, but the learners will need access to the internet, and appropriate devices may not be available in all situations.
High-fidelity manikin simulation provides the opportunity for hands-on learning and stimulates the learner’s ability to assess and even respond to a simulated patient. The cost and storage of manikins, as well as their need for maintenance and repair, are some of the challenges of this technology. The useful life of this technology is several years, and it needs to have updates to software or functionality to keep up with educational demands (Sans et al., 2022). The manikins may need to have some adjustments, such as voice prompts, larger displays, or sensory aids, to comply with the Americans with Disabilities Act (ADA) for learners with visual or auditory impairments or with physical disabilities.
Recommendation
Due to its several advantages, integration of Sentinel U online and high-fidelity manikin simulations is suggested for nursing education. The online simulation includes several benefits such as remote access and asynchronous learning, while the high-fidelity manikin simulation offers the necessary skills practice. This combination also addresses the needs of different learning styles and provides adequate preparation for real-world scenarios. While budget and other resources dictate which simulation is offered in specific contexts, the other is not eliminated completely.
Conclusion
Sentinel U online simulations paired with high-fidelity manikin simulations are significant for nursing education. The two simulated learning systems combined help develop critical thinking and clinical and pharmacological skills. In simulations, online systems support theoretical learning, while in manikin simulations, learning is complemented with real-life simulations and practice of clinical skills and active assessments of situational needs. The combination of the two systems offers a unique learning opportunity to prepare nursing students for the real challenges of patient care.
References NURS FPX 6112 Assessment 3
You can use these references on your assessment:
Aebersold, M., & González, L. M. (2023). Advances in technology-mediated nursing education. Online Journal of Issues in Nursing, 28(2). https://doi.org/10.3912/ojin.vol28no02man06
Burnett, G. W., & Fiebert, S. N. G. -. (2024). The role of simulation training in patients’ safety in anaesthesia and perioperative medicine. BJA Education, 24(1), 7–12. https://doi.org/10.1016/j.bjae.2023.10.002
Cant, R., & Ryan, C. (2022). An educator’s anthology of virtual simulation applications for nursing curricula: A mapping review. Clinical Simulation in Nursing. https://doi.org/10.1016/j.ecns.2022.08.007
Chakal, K. (2024). A virtual reality training application for administering basic life support in stressful scenarios. Oulu.fi. https://oulurepo.oulu.fi/handle/10024/50615
Lucas, Fabrícia Torres Gonçalves, Arantes, H. P., Garcia, R. A., Regina, M., Mariane, M., Adriano, Pereira, A. A., Milagre, S. T., & Santos, F. P. (2024). Usability evaluation of high-fidelity simulation manikin for cardiopulmonary resuscitation training for medical students. Research on Biomedical Engineering, 40(1), 253–264. https://doi.org/10.1007/s42600-024-00340-z
Palaganas, J. C., Mosher, C., Wawersik, D., Eller, S., Kirkpatrick, A. J., Lazarovici, M., Brown, K. M., Stapleton, S., Hughes, P. G., Tarbet, A., Morton, A., Duff, J. P., Gross, I. T., & Sanko, J. (2024). In-person healthcare simulation. Simulation in Healthcare: The Journal of the Society for Simulation in Healthcare. https://doi.org/10.1097/sih.0000000000000822
Sałacińska, I., Trojnar, P., Gebriné, K. É., Törő, V., Sárváry, A., & Więch, P. (2025). A comparative study of traditional high-fidelity (manikin-based) simulation and virtual high-fidelity simulations concerning their effectiveness and perception. Frontiers in Medicine, 12. https://doi.org/10.3389/fmed.2025.1523768
Sans, J. A. M., Gonzalez, L., & La Rosa-Salas, V. (2022). Simulation-based learning from across the globe. Nursing and Informatics for the 21st Century – Embracing a Digital World, 3rd Edition, Book 2, 183–200. https://doi.org/10.4324/9781003281009-11
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