VOLUME I · № 8 · February 2026
Teaching the Hand That Holds the Camera
The Evolution of Arthroscopic Surgical Training
Citation
Testa, Edward J., MD; Fadale, Paul D., MD. Arthroscopic Training: Historical Insights and Future Directions. Journal of the American Academy of Orthopaedic Surgeons 31(23): p 1180-1188, December 1, 2023. | DOI: 10.5435/JAAOS-D-23-00254
🔗 Read the full article:
https://journals.lww.com/jaaos/pages/articleviewer.aspx?year=2023&issue=12010&article=00002&type=Fulltext
Opening Editorial: Editor’s Perspective
Arthroscopy has become one of the defining surgical techniques of modern orthopaedics. From meniscal repair to rotator cuff reconstruction, minimally invasive arthroscopic procedures are now performed across nearly every orthopaedic subspecialty.
Yet despite the ubiquity of arthroscopy in practice, the way surgeons are trained to perform it remains highly variable.
This review from JAAOS explores the evolution of arthroscopic education, from the historical apprenticeship model to modern training strategies involving simulation, cadaveric laboratories, and virtual reality platforms.
Why This Paper Matters
Arthroscopy requires a unique skillset distinct from traditional open surgery, including:
• Triangulation
• Bimanual dexterity
• Navigating 3D anatomy through a 2D camera view
These technical demands make arthroscopy particularly challenging to teach.
Historically, surgical education relied on the apprenticeship model, often summarized as:
“See one, do one, teach one.”
However, modern training environments, shaped by work-hour restrictions, operating room efficiency pressures, and patient safety considerations, have made this model increasingly difficult to sustain.
The Evolution of Arthroscopic Education
The article traces the development of arthroscopy from early endoscopic instruments to modern visualization systems.
Important milestones include:
• Early endoscopic visualization techniques in the 1800s
• The first arthroscopic knee visualization in the early 1900s
• Fiber optics and rod-lens technology in the mid-20th century
• Integration of camera systems and video monitoring in the 1970s
These technological advances dramatically expanded the possibilities of arthroscopic surgery and simultaneously created new training challenges.
Modern Training Modalities
Today, arthroscopic education often includes a combination of several teaching approaches.
Cadaveric Training
Cadaveric laboratories remain one of the most valuable training tools because they allow surgeons to practice with real tissue and instrumentation in an environment that closely resembles the operating room.
However, cadaveric training is limited by:
• Cost
• Laboratory access
• Resource availability
Simulation-Based Training
Simulation has become an increasingly important component of arthroscopic education.
Training tools include:
Low-fidelity simulators
Affordable
Basic skill development
Examples include box trainers and task stations
High-fidelity simulators
Virtual or augmented reality environments
Realistic instrumentation with tactile feedback
Higher cost but greater realism
Research suggests these simulators can improve technical performance in novice trainees, although translation to real surgical performance remains an active area of study.
Educational Courses and Structured Curricula
Organizations such as:
• Arthroscopy Association of North America (AANA)
• American Academy of Orthopaedic Surgeons (AAOS)
• American Orthopaedic Society for Sports Medicine (AOSSM)
offer structured arthroscopy training courses that combine simulation, cadaveric practice, and expert instruction.
These courses provide concentrated opportunities to develop technical skills outside the operating room.
Future Directions
The authors highlight several emerging directions in arthroscopic education:
Proficiency-Based Training
Training models that focus on achieving objective skill benchmarks rather than simply completing case volumes.
Virtual Reality Simulation
Portable VR platforms may allow trainees to practice arthroscopic procedures before entering the operating room.
3D-Printed Simulation Models
Low-cost models created through additive manufacturing may expand access to simulation training globally.
These technologies could help standardize arthroscopic training across programs.
Closing Perspective
Arthroscopy continues to evolve rapidly, with expanding indications and increasing procedural complexity.
Ensuring that the next generation of orthopaedic surgeons can perform these procedures safely requires training models that extend beyond the traditional operating room.
Simulation, structured curricula, and competency-based assessment may ultimately define the future of arthroscopic education.
Discussion Questions
Should simulation-based training become mandatory before performing arthroscopy in the operating room?
How should competency in arthroscopy be objectively measured?
Can simulation-based curricula reduce the learning curve for complex arthroscopic procedures?
Continue reading
From the same volume.
Vol I · № 14
When Surgery Outperforms Strength Training
Rethinking Severe Hip Osteoarthritis Through the PROHIP Trial
A New England Journal of Medicine randomized controlled trial compared total hip replacement with supervised resistance training in patients with severe hip osteoarthritis. At six months, arthroplasty produced clinically meaningful and superior improvements in patient-reported hip pain and function — while the data simultaneously sharpened the case for conservative management, preoperative conditioning, and shared decision-making.
Vol I · № 13
Rebuilding Strength
Anatomical Reconstruction of Chronic Distal Biceps Tendon Ruptures
Chronic distal biceps tendon ruptures present a distinct technical challenge. This issue surveys advanced reconstructive techniques, anatomical considerations, and the practical decisions that determine restoration of supination strength and elbow flexion endurance.