(Aligned with Textbook Chapter 19)
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Consult textbook Chapter 19 for additional detail and examples
Introduction
Needs Assessment
Creation of Commercial Products
Adopting the Mindset of an Innovator
Functionality over Fidelity
While Modifications Can Be Helpful, Consider Operational Priorities
Technologies to Enhance Simulation Education
Devices
Check Your Understanding
Preparation for the In-Person Lab / Workshop
Technology and innovation play a central role in the evolution of healthcare simulation. Chapter 19 frames innovation not as novelty for its own sake, but as purposeful change introduced into complex educational and operational systems.
Key ideas introduced in this section include:
technology as both opportunity and risk
innovation as a response to identified needs
the importance of aligning technology with educational goals
the reality that innovation can increase system complexity
For Simulation Operations Specialists (SOS), innovation must always be considered in relation to system stability, reliability, and safety.
Effective innovation begins with a clear needs assessment.
This section emphasizes:
identifying educational gaps before adopting technology
distinguishing between “interesting” tools and “necessary” tools
aligning innovation with learner needs, faculty goals, and institutional context
avoiding technology-driven rather than need-driven decisions
SOS perspective:
Needs assessment is an operational skill. SOS professionals help determine whether new technology will genuinely improve learning or introduce unnecessary burden.
Many simulation technologies move from concept to market through commercial development.
Key considerations discussed:
cost and accessibility
scalability and support
relationship between innovation and commercialization
potential mismatch between educational value and market appeal
SOS perspective:
Commercial availability does not guarantee operational suitability. Products must be evaluated within the realities of workflow, maintenance, and support.
Innovation is presented as a mindset, not just the acquisition of new devices.
This section highlights:
creativity grounded in purpose
openness to improvement
willingness to question existing practices
responsibility to balance innovation with reliability
SOS perspective:
Professional innovation requires restraint. SOS professionals innovate by improving systems, not by introducing instability.
This section reinforces a core simulation principle: higher fidelity does not automatically improve learning.
Key points include:
functional alignment with learning objectives is more important than realism
overly complex systems can distract learners
simpler solutions may provide greater educational value
fidelity should serve purpose, not appearance
SOS perspective:
Choosing functionality over fidelity supports reliability, safety, and sustainable operations.
Customization and modification can enhance simulation, but they also introduce risk.
This section cautions against:
uncontrolled customization
undocumented modifications
increasing maintenance burden
destabilizing established workflows
SOS perspective:
Every modification has operational consequences. SOS professionals must weigh short-term gains against long-term system stability.
This section provides examples of technologies used to enhance simulation learning, emphasizing integration rather than novelty.
Examples discussed include:
imaging-related technologies
ultrasound and procedural devices
technology-enhanced task trainers
Key considerations:
educational purpose
integration into workflows
training requirements
ongoing support and maintenance
SOS perspective:
Devices must be evaluated not only for what they can do, but for how they affect the entire simulation system.
Before the lab, you should be able to:
explain why innovation must be needs-driven
identify operational risks associated with new technology
articulate the SOS role in evaluating and integrating innovation
distinguish functional value from superficial fidelity
In the lab, you will:
analyze real simulation technologies through an operational lens
evaluate innovation trade-offs
practice SOS decision-making related to technology adoption