Learning theories in healthcare simulation
- Nov 26, 2024
- 4 min read

Learning theories in healthcare simulation provide the foundation for designing effective educational experiences that enhance knowledge, skills, and behaviors. They guide the creation of simulation scenarios, instructional strategies, and debriefing processes to ensure meaningful learning outcomes.
Here’s an overview of key learning theories applied in healthcare simulation:
1. Experiential Learning Theory (Kolb)
· Overview:
· Learning occurs through experience, reflection, and application.
· Emphasizes a cycle of Concrete Experience → Reflective Observation → Abstract Conceptualization → Active Experimentation.
· Application in Simulation:
· Learners participate in hands-on simulation scenarios (Concrete Experience).
· Engage in debriefing to reflect on actions and decisions (Reflective Observation).
· Discuss underlying principles or theories (Abstract Conceptualization).
· Apply lessons in subsequent simulations or real-life practice (Active Experimentation).
· Example:
· A team performs a resuscitation scenario, reflects on their performance during debriefing, learns CPR algorithms, and practices again.
2. Constructivism (Piaget, Vygotsky)
· Overview:
· Learners build new knowledge by connecting it to prior experiences.
· Social interactions and collaboration enhance learning (Vygotsky’s Social Constructivism).
· Application in Simulation:
· Scenarios are designed to build on learners' existing knowledge.
· Group simulations encourage teamwork and shared problem-solving.
· Facilitators guide learners to construct understanding through questioning and discussion.
· Example:
· A simulation for novice nurses focuses on basic skills, while advanced learners tackle complex, interdisciplinary scenarios.
3. Situated Learning Theory (Lave and Wenger)
· Overview:
· Learning occurs in the context where it is applied, emphasizing real-world relevance.
· Participation in a "community of practice" helps learners gain competence.
· Application in Simulation:
· Use authentic environments, such as hospital rooms or ambulances, to mirror clinical settings.
· Create interdisciplinary simulations where learners engage with professionals from other fields.
· Example:
· An emergency department team practices managing a cardiac arrest in a high-fidelity simulated ED.
4. Cognitive Load Theory (Sweller)
· Overview:
· Learning is optimized when cognitive load is managed effectively.
· Avoid overwhelming learners with excessive information or complexity.
· Application in Simulation:
· Start with simple scenarios for novices, gradually increasing complexity.
· Use scaffolding techniques, such as prompts or guides, to support learning.
· Avoid distractions during scenarios to reduce extraneous cognitive load.
· Example:
· A novice learner starts with a basic airway management scenario before progressing to a difficult airway case with multiple complications.
5. Behaviorism (Skinner, Pavlov)
· Overview:
· Learning is reinforced through rewards, feedback, and repetition.
· Focuses on observable behaviors and skill acquisition.
· Application in Simulation:
· Provide immediate feedback during skills training, such as intubation or suturing.
· Use repetitive practice on task trainers to reinforce procedural skills.
· Example:
· A learner practices IV insertion on a task trainer, receiving corrective feedback after each attempt.
6. Social Learning Theory (Bandura)
· Overview:
· Learning occurs through observation, imitation, and modeling.
· Emphasizes the importance of role models and social interactions.
· Application in Simulation:
· Use expert facilitators or senior learners to demonstrate skills before learners practice.
· Encourage peer observation and feedback during group scenarios.
· Example:
· Learners watch an instructor perform a central line insertion and then replicate the procedure on a simulator.
7. Constructive Alignment (Biggs)
· Overview:
· Learning activities, assessments, and objectives must align for effective education.
· Focuses on ensuring simulation design meets desired learning outcomes.
· Application in Simulation:
· Clearly define learning objectives for each simulation.
· Align scenarios and debriefing methods with intended competencies (e.g., technical skills, communication, teamwork).
· Example:
· A scenario aimed at teaching teamwork assesses communication skills during debriefing rather than focusing solely on clinical accuracy.
8. Transformative Learning Theory (Mezirow)
· Overview:
· Learning involves questioning and changing deeply held beliefs or assumptions.
· Focuses on critical reflection and personal growth.
· Application in Simulation:
· Use emotionally engaging or ethically challenging scenarios to provoke reflection.
· Facilitate discussions that challenge learners' biases or preconceptions.
· Example:
· A simulation addresses end-of-life care, prompting learners to reflect on their communication skills and attitudes toward palliative care.
9. Mastery Learning Theory (Bloom)
· Overview:
· Learners progress only after achieving a set level of competence in each task.
· Emphasizes deliberate practice and assessment.
· Application in Simulation:
· Use structured, repetitive simulations to ensure skill mastery before advancing to complex scenarios.
· Incorporate formative assessments with clear performance benchmarks.
· Example:
· A learner practices ventilator management in a simulation until they achieve predefined proficiency.
10. Situated Cognition (Brown, Collins, Duguid)
· Overview:
· Knowledge is tied to the context in which it is learned.
· Learning is most effective when tasks are authentic and contextually rich.
· Application in Simulation:
· Design scenarios that replicate the complexity and nuance of real clinical environments.
· Use realistic props, equipment, and interprofessional roles.
· Example:
· A trauma simulation involves paramedics, surgeons, and nurses managing a critically injured patient from the field to the operating room.
11. Bloom’s Taxonomy
· Overview:
· A hierarchical framework for cognitive learning, from basic knowledge to higher-order thinking:
· Remember → Understand → Apply → Analyze → Evaluate → Create.
· Application in Simulation:
· Start with basic skill drills (e.g., "Remember" and "Understand").
· Progress to critical thinking and problem-solving in complex scenarios (e.g., "Analyze" and "Evaluate").
· Example:
· Learners practice identifying signs of sepsis, then manage a simulated septic patient, and finally design a treatment protocol.
12. Situated Motivation (Self-Determination Theory)
· Overview:
· Motivation is key for effective learning and stems from autonomy, competence, and relatedness.
· Application in Simulation:
· Allow learners to set personal goals for the simulation.
· Ensure scenarios are appropriately challenging to build confidence.
· Foster collaboration and team spirit.
· Example:
· A simulation on disaster response gives each team member a defined role, encouraging ownership and teamwork.
Integrating Learning Theories into Simulation Practice
1. Scenario Design:
· Combine theories to address diverse learning needs.
· Balance technical skill practice with cognitive and emotional engagement.
2. Facilitation:
· Use facilitators trained in debriefing methods aligned with experiential and transformative learning.
3. Assessment:
· Include formative and summative assessments to evaluate progress and mastery.
4. Reflection:
· Encourage learners to connect simulation experiences to real-life practice through guided reflection.
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