Role of AI in Orthopaedic Surgery: Current Use, Challenges and Future
- Dr Suhail Chughtai FRCS
- Nov 24, 2024
- 3 min read
Updated: Nov 25, 2024

Author: Dr Suhail Chughtai, FRCS, FFLM
Artificial intelligence (AI) is transforming orthopaedic surgery by enhancing diagnostic accuracy, improving surgical outcomes, and streamlining healthcare processes. This article explores AI's applications in orthopaedics, its deployment methodology, challenges, case studies, and the future landscape.
CURRENT APPLICATIONS
Diagnostic Support
AI excels in interpreting complex imaging modalities. For instance, convolutional neural networks (CNNs) are used to detect fractures, grade arthritis, and identify spinal pathologies with precision. AI also supports preoperative planning by analyzing imaging data to create detailed anatomical models (BOA Homepage / PLOS)
Surgical Assistance
Robotic systems like MAKO and ROSA leverage AI for precision in procedures such as knee arthroplasty and spine surgery. These systems enable image-guided navigation, haptic feedback, and enhanced alignment during surgeries (BOA Homepage)
Outcome Prediction
AI models predict patient-specific outcomes, aiding personalised care. For example, machine learning algorithms analyze large datasets to forecast post-surgical complications, recovery times, and implant success (PLOS)
DEPLOYMENT METHODOLOGY
Data Collection and Annotation
AI relies on large datasets from electronic health records (EHRs), imaging systems, and surgical outcomes. High-quality, annotated data is essential to train and validate models (JEO Esska / PLOS)
Model Development
Techniques such as machine learning and deep learning are employed. Algorithms like random forests and support vector machines are common, with increasing use of neural networks (PLOS)
Integration into Clinical Workflow
AI tools are embedded into imaging systems, decision-support platforms, or robotic systems, ensuring seamless use alongside human expertise (JEO Esska)
CHALLENGES
Data Quality and Bias
AI's reliability depends on diverse and high-quality datasets. Bias in training data can lead to unequal outcomes across populations (JEO Esska)
Regulatory and Ethical Issues
Regulations such as the European AI Act emphasise transparency, human oversight, and data security. Compliance with these standards is resource-intensive (JEO Esska)
Adoption Barriers. Clinicians face a steep learning curve with new technologies, and integrating AI into established workflows often requires significant investment (PLOS).
CASE STUDIES
AI in Fracture Detection
A study demonstrated that AI outperformed radiologists in identifying wrist fractures on X-rays, reducing diagnostic errors and expediting treatment (JEO Esska)
Robotics in Arthroplasty
The MAKO robotic system improved implant positioning accuracy in knee replacement surgeries, leading to better long-term outcomes compared to traditional methods (BOA Homepage)
FUTURE VISION
Digital Twins
Digital twin technology is emerging, creating patient-specific virtual models to simulate surgical outcomes and personalize interventions (JEO Esska)
AI-Driven Predictive Analytics
Future tools may combine AI with wearable sensors and real-time monitoring to predict musculoskeletal injuries and optimize rehabilitation plans (JEO Esska)
Collaborative Systems
AI will likely evolve into a collaborative partner, complementing rather than replacing human surgeons, enhancing decision-making, and enabling more minimally invasive procedures (BOA Homepage/ PLOS)
CONCLUSION
AI in orthopaedics is revolutionising patient care by enhancing diagnostic precision, surgical accuracy, and personalised treatments. Despite challenges in data quality, regulation, and adoption, advancements like digital twins and predictive analytics hold immense potential. Continued collaboration between technologists, clinicians, and policymakers will ensure AI's ethical and effective integration into orthopaedic practice.
DISCLAIMER
The content presented in this publication includes references, insights, and excerpts derived from external sources and authors. Every effort has been made to credit the original authors and sources appropriately. If any oversight or misrepresentation is identified, it is unintentional, and we welcome corrections to ensure proper attribution. The inclusion of external materials does not imply endorsement or affiliation with the original authors or publishers. This publication is intended for informational and educational purposes only, and the views expressed are those of the author(s) and do not necessarily reflect the opinions of the referenced sources.
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