NURS FPX 6112 Assessment 3 Comparison of Types of Simulation Technology
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Capella University
NURS- FPX6112
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NURS FPX 6112 Assessment 3 Comparison of Types of Simulation Technology
The use of simulation technologies in nursing education has been deemed a very significant tool because students can practice clinical skills in a safe, controlled environment, without endangering patients. This is a comparison of two widely used applications. They are Sentinel U virtual simulations and high-fidelity manikin simulations, which are utilized in undergraduate nursing clinical assessment, pharmacology, and pathophysiology courses. The aim will be to identify which approach is more successful at achieving better outcomes in learning, including critical thinking, clinical decision making, and effective competency through simulated learning. Sentinel U reinforces decision-making on an interactive, scenario-based system and a high-fidelity manikin in these areas. This comparison is important to make in order to assess the contributions of each modality in achieving learning goals and to identify and measure the following factors: cost, usability, realism, storage space, service contracts, and durability in academic or clinical training settings.
Simulation Technologies
Sentinel U is a virtual reality simulation system that can support students in making clinical decisions through learning with interactivity. It gives real-life conditions that are diagnosed and need to be taken care of. For instance, hypertension and neurological symptoms with Aiyana Tehanata. Learners can make use of their knowledge of physical assessment, pharmacology, and pathophysiology with the valuable and immediate feedback, and repeat practicing it. It has many positives in that it is flexible, adaptable, can be accessed from any device with an Internet connection, and allows for reinforcing the learning process without in-person equipment or instructions. These simulations focus on cognitive learning, including collecting clinical information, interpreting lab results, making pharmacologic decisions, and reacting to changes in the symptoms in a safe and non-threatening environment. It also offers instant feedback and performance scoring, further facilitating student reflection and self-evaluation.
Contrastingly, the students were exposed to high-fidelity manikins, in this case SimMan 3G, who responds to multiple stimuli. Students can train themselves by using their practical skills, for instance, breathing, the heart sounds, and speech. These types of manikins are typically used in practice sessions, skills laboratories, or in the hospital to practice clinical processes and emergency treatment in an immersive and team-based way. They are particularly useful to develop psychomotor skills and situational awareness since their physical and reactive aspects are quite effective. Students have the opportunity to become hands-on, responsive in a practice environment, such as auscultation, insertion of an IV, CPR, and wound care. The ability to interprofessionally train and to communicate with the team in real time within scenarios guided by the instructor is also provided by these simulations.
Rationale
Sentinel U is less expensive, easier to use, and offers a scaling feature to adapt to remote/asynchronous learning, but does not offer some of the tactile features. High fidelity manikins are less realistic and require a high level of investment, a skilled manikin operator, and committed facilities, but can only be surpassed by nothing in regard to skill training. Their inflexibility as compared to the web-based platforms adversely affects their portability. Sentinel U is better suited for students to prepare them for clinical decision-making in scenarios that are scalable and accessible before transitioning to high-fidelity, hands-on scenarios.
Educational Outcomes
One of the nursing education goals is to enhance knowledge retention and critical thinking. This is supported by Sentinel U, which offers self-paced and virtual clinical situations that simulate actual-life decision-making with the possibility of applying theory to practice by students. Its trial and error, interactive and reflective nature facilitates feedback or repetition, and deeper thinking and higher clinical judgement. For instance, the situation requires the learner to analyse the patient’s symptoms, the effects of the drugs, and draw inferences as to how the patient should be perceived to make a link between the assessment data and the underlying pathophysiological process. The ability to analyze clinical data, identify clinical symptoms, and make evidence-based decisions is greatly enhanced with Sentinel U simulations because learners can do so in a safe and repeatable online environment to augment knowledge retention and critical thinking. Pharmacology and pathophysiology concepts are applied to the context of the learner, and this is challenging them, helping to promote long-term understanding and the ability to make decisions accurately.
High-fidelity manikins are better utilized for developing an actual skill. Students are able to insert IVs, auscultate, and act in emergencies in a physical environment with high fidelity representations of these students, allowing them to get their hands dirty, build muscle memory in their muscles, gain confidence, and acquire skills from these experiences. While Sentinel U is great in terms of development of clinical reasoning, it is not tactile like a manikin. High-fidelity simulations can increase psychomotor and communication skills, which cannot be done virtually. These two approaches can be combined within the one process of learning to yield a better-balanced learning process. Professionals use instruments such as performance checklists, rubrics, examination grades, and satisfaction questionnaires to ascertain effectiveness. The Sentinel U has automated feedback and scoring to facilitate student self-improvement at intervals, while the high-fidelity simulations are observed by the instructor, checked for skills on a checklist, and video-debriefed. Use debriefing as a reinforcement method to learning and developing clinical reasoning is the same for each other. These practices together offer a complementary understanding of competency, data collection on virtual simulation, and corrections analysis via manikin practice. Typical pre-simulation preparation for Sentinel U involves reading case materials, reviewing appropriate pathophysiology/pharmacology content, and grasping the objectives of the evaluation. This can be done asynchronously by students, providing some flexibility. It may be followed by a post-simulation debriefing where the performance scorecard provided by the platform is discussed, as well as having guided reflection discussion(s) or completing knowledge-check quizzes after the simulation. Pre-simulation is more structured and may take place in a classroom/lab setting for high-fidelity manikin simulations and may involve briefing sessions, scenario walk-throughs, and role assignment of clinical tasks. Debriefing is typically done in person and facilitated by the instructor right after the simulation, and includes a discussion of the learner’s clinical decisions, interactions with colleagues, and feedback on the patients. This human-to-human contact fosters emotional connection, reflection, and reinforcement of safe clinical practices.
Evidence-Based Rationale
While both high fidelity and Sentinel U manikins do have positive learning value, it appears that the more basic aspects of clinical reasoning and decision-making can be developed using the Sentinel U manikin, particularly for Novice learners. Low-pressure, simulated, repeatable, and immediate feedback environment provided by its virtual simulations allowed the students to learn from their mistakes without the risk of harm to patients. The tools are especially effective for developing critical thinking and synthesizing theory, Tavares said. On the other hand, high fidelity manikins are more appropriate for teaching of practice-oriented procedural skills and teamwork, and are preferred by more advanced learners as well as in an emergency drill session. Sentinel U is also a low-cost, easily accessible, and scalable solution that can be utilized in large-scale learning and would be most beneficial in remote and resource-limited settings.
Teaching Physical Assessment
Sentinel U assists nursing students in gaining skills in physical assessment by exposing them to interactive situations of examining virtual patients through the use of symptoms, histories, and vital signs. While the learners cannot physically examine the patient, they are instructed to interpret the signs and symptoms (such as blood pressure, neurological symptoms, and history of medications), and make decisions at the appropriate level of clinical practice. Students interpret the physical examination signs, which may include weak, diminished pedal pulses and tingling feet, for example, as part of stimulating students’ thinking and skills to correlate the signs and symptoms found on physical examination with possible pathologies (Aiyana Tehanata Case). In Song and Cai (point out—Virtual simulations are valuable for supporting the theoretical component of assessment, as they can cover the theory and practice of the learning field; however, they are not hands-on and do not have physical interaction), virtual simulations are used for supporting the theory component of the evaluation; however, hands-on and physical interaction are not involved. The students are not directly involved in the actual execution of these assessments, but are taught to think critically about data collection, interpretation of data, and what the data may indicate in terms of a possible underlying condition. This approach is useful especially in the early stages of nursing education to develop cognitive understanding of assessment techniques and to enhance clinical reasoning. High fidelity manikins, on the other hand, would enable students to conduct physical examination on life-like manikins that would react to their actions, such as auscultation, pulse, pupil examination, and so on. The manikins offer realistic physical stimulation, for example, breathing and heartbeats, allowing the assessment to be performed head to toe. This hands-on skill not only builds tactile familiarity but also muscle memory needed for proper bedside skills. In addition to offering students a level of realism and skill-shaping that nothing could offer with virtual tools as advanced as these, Sałacińskaet says that their hands-on training is also a boost to the students’ confidence and competence to manage real-life activities. This practical training is particularly effective in fine-tuning students’ psychomotor skills and in developing muscle memory and confidence in conducting a real-life assessment. Moreover, the simulations help to prepare students better for their clinical rotations and clinical practice. More resource-intensive, high-fidelity simulations are invaluable in changing theory into competent bedside practice.
Teaching pharmacology
The addition of pharmacology to the virtual scenarios adds the need for Sentinel U students to assess the medication approaches and understand side effects of the medications, and to determine medication strategy based on interactions among medications and patient reactions. For instance, Aiyana Tehanata requires them to determine if the symptoms she experiences (tingling feet) are due to antihypertensive medications they give her (ACE inhibitors or calcium channel blockers). Other issues, such as adherence, dosage, and adjustment requirements, are emphasized in the simulation, which reinforces the pharmacologic content of the concepts of the acting mechanism and patient-related factors. Gharib says such simulations are harmless to participate in to practice thought in the field of pharmacology and implement what they’ve learnt within their classroom. They also have to take into account such things as the medication’s adherence, medication needs, and contraindications related to the medical history of the patient. This approach will develop critical thinking skills in relation to drug therapy and help to reinforce the theoretical knowledge of pharmacokinetics, pharmacodynamics, and patient-specific factors in a safe learning environment. High fidelity manikins are also used to help the student understand pharmacology – they can see how their BP changes if they give an anti-hypertensive or bronchodilator, for example. Students train the five rights of medication administration applied with different ways of delivery (IV, IM, oral) with instant feedback based on the changes in vital signs. This applied knowledge links the drugs undertaken action and visible effects, and enhances the psychomotor aspects and safe application of medicines. Virtual training is based on the mental training provided in conjunction with the haptic, optical perception. This instant feedback will remind the importance of safe medication administration, timely decisions, and teamwork in administering drugs. High-fidelity manikins are essential tools that complement pharmacology knowledge to translate it into competent practice. In contrast to virtual simulations, they offer opportunities to practice psychomotor skills such as using syringes, IV pumps, and other tools for delivering medication.
Teaching Pathophysiology
Pathophysiology is a highly effective course taught in Sentinel U as it allows the course to be followed throughout the development of a disease using a virtual patient, which demonstrates the progression of a disease in a very vivid manner. An example, such as the case of Aiyana Tehanata, can enable the learners to associate the symptoms, such as tingling feet, with chronic cases of hypertension and peripheral neuropathy, thus reinforcing their knowledge on how chronic conditions affect the functioning of multiple systems and later advancing their level of understanding on the links between clinical manifestations or clinical signs and pathology. Such simulations encourage students to learn reflexively by causing rational consideration of causes and ways to handle things. Li verifies the ability of virtual tools to highlight multiple (and integrated) clinical and theoretical information related to contextualisation of a complex disease process.
This is accompanied by a real-time experience, since high-fidelity manikins will be able to display actual acute and chronic conditions like respiratory difficulty or a hypoglycemic response, and learners will be able to respond with real-time changes of the manikin’s physiology. They become more knowledgeable of the pathophysiology and emergency response aspects of the interactive nature. The use of simulation to teach pathophysiology is based on the rationale that it is a bridge between theoretical learning and clinical application, allows learners to make decisions related to patient safety, and aids in enhancing clinical reasoning while enabling a learner to make health care decisions for his/her patient, which are important skills in nursing practice.
Challenges and Benefits
One of the significant implementation challenges of simulation technology is the ability to provide users with the necessary tools and training at a reasonable and affordable price. High fidelity manikins are expensive due to their space and facility requirements, the need for a special faculty, and they cannot be scaled. It may be cumbersome if it only applies to students who are physically disabled, unless such adjustments are made, such as having tables that can be moved up or down, or providing verbal instructions. Sentinel U, on the other hand, is far simpler, far more flexible, and therefore appropriate to remote learners and can be easily scaled. Access to students who have a visual impairment and/or are unable to access the technology is difficult because the technology lacks access for visual impairment. One difficulty, however, is that there is a lack of a tactile, hands-on experience, which might affect the development of psychomotor skills.
Despite these disadvantages, both tools have definite advantages in nursing education. Sentinel U enhances clinical decision-making and critical thinking skills by providing reinforcement to theoretical knowledge in an immediate, interactive, and self-paced environment. High fidelity manikins create realistic clinical settings and provide a chance for practice to develop psychomotor skills and the component of teamwork. All these tools help make the learning experience well-rounded: Sentinel U helps develop cognitive skills, while manikins develop procedural and team spirit skills. Though they are effective, they are not without their problems, such as high cost (initially over $60,000 per unit), dedicated simulation labs, maintenance, software updates, storage, and repair services. They also need trainers with experience in simulation operations. Both screens and keyboard controls are required for ADA accommodation for Sentinel U, and the availability of physical access to modified equipment (e.g., adjustable manikin tables, assistive devices) in the high fidelity labs is required.
Recommendations
The combination of both Sentinel U and high-fidelity manikins, along with their complementary nature, is the best-suited approach to use when teaching nursing comprehensively. As a ground learning platform, Sentinel U would be an ideal opportunity for students to develop their critical thinking and pharmacologic reasoning, disease mechanisms, and more in a safe, flexible, and cost-effective environment. When students are comfortable with these basic ideas, the use of high-fidelity manikins for practicing these skills should follow, so that students are aware that what they have learned may be useful in real-life situations. It is a blended model that fits into the needs of different learning objectives, fosters not only cognitive, but also motor skills, and can be tuned towards the specific institutional preferences and student demands.
Conclusion
When comparing Sentinel U and high-fidelity manikin simulation, it is obvious to conclude that they both have unique and beneficial implications on nursing education. Sentinel U is highly effective in developing critical thinking, clinical reasoning, and pharmaceutical knowledge through adaptive scenario learning, and high-fidelity manikins provide a real feeling and application of physical assessment skills and procedures. Although they have both various limitations – either tactile realism or availability – their use together creates a learning partnership that is less defective in terms of the scope of the cognitive and psychomotor domains.
References For NURS FPX 6112 Assessment 3
Altmiller, G., & Pepe, L. H. (2022). Influence of technology in supporting quality and safety in nursing education. Nursing Clinics of North America, 57(4), 551–562. https://doi.org/10.1016/j.cnur.2022.06.005
Baily, L. (2021, June 21). Immersive virtual clinical simulations transform nursing education. HealthySimulation.com. https://www.healthysimulation.com/sentinel-u-virtual-clinical-simulations/
Comer, L. (2021). Impact of virtual simulation on nursing students’ self-efficacy. SSRN Electronic Journal, 23(2), e84. https://doi.org/10.2139/ssrn.4002684
Gharib, A. M., Peterson, G. M., Bindoff, I. K., & Salahudeen, M. S. (2023). Potential barriers to the implementation of computer-based simulation in pharmacy education: A systematic review. Pharmacy, 11(3). https://doi.org/10.3390/pharmacy11030086
Hill, K., Schumann, M., Farren, L., & Clerkin, R. (2023). An evaluation of the use of low-fidelity and high-fidelity mannequins in clinical simulations in a module preparing final year children’s and general nursing students for internship placement. Comprehensive Child and Adolescent Nursing, 46(4), 295–308. https://doi.org/10.1080/24694193.2023.2232456
Li, X., Yang, L., Zhou, T., Liang, H., Zhang, L., Jiang, W., & Xie, N. (2024). Insights into virtual reality-based training for unexplained disease outbreaks: A qualitative exploration of Chinese standardized training nurses’ experiences. Nurse Education Today, 143(1). https://doi.org/10.1016/j.nedt.2024.106358
Lucas, Gonçalves, F. T., 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
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(1). https://doi.org/10.3389/fmed.2025.1523768
Song, H., & Cai, L. (2024). An interactive learning environment is a source of critical thinking skills for college students. BMC Medical Education, 24(1), 270. https://doi.org/10.1186/s12909-024-05247-y
Tavares, N. (2022). The use and impact of game-based learning on the learning experience and knowledge retention of nursing undergraduate students: A systematic literature review. Nurse Education Today, 117(1). https://doi.org/10.1016/j.nedt.2022.105484
Vreugdenhil, J., Broeksma, L., Teuwen, C., Custers, E., Reinders, M., Dobber, J., & Kusurkar, R. A. (2024). Debriefing to nurture clinical reasoning in nursing students: A design-based research study. Nurse Education Today, 143(1). https://doi.org/10.1016/j.nedt.2024.106402