Musculoskeletal oncology often involves complex tumour resections, requiring precise margins while preserving as much of the surrounding anatomy as possible. The advent of digital technologies, including 3D printing, advanced imaging, and robotics, offers the opportunity for unprecedented precision in these challenging surgical interventions. These technological advancements are pivotal in transforming traditional practices, leading to more personalized and effective treatment strategies that align with the principles of precision medicine.
We stand at the brink of a transformative era in musculoskeletal oncology, where the integration of digital technologies with medical expertise is reshaping the paradigms of diagnosis, treatment, and patient care. The primary aim of this collection is to showcase the significant impact of enabling technologies in musculoskeletal oncology. We focus on how these technologies are being integrated into the orthopaedic domain, enhancing procedures such as joint-preservation surgeries and using custom 3D-printed surgical aids and endoprostheses. This collection aims to highlight innovations that improve precision, outcomes, and patient-specific care in orthopaedic oncology.
This collection invites original research articles, reviews, and innovative perspectives from orthopaedic surgeons, researchers, and practitioners at the forefront of integrating digital advancements into clinical practice. We are particularly interested in contributions that explore the following themes:
• Reconstruction Strategies: Advances in reconstructive techniques for limb salvage, including the integration of 3D printing and biological materials.
• Endoprosthesis Related: Novel designs in endoprosthetic solutions for complex defect reconstructions post-tumor removal and their long-term outcomes.
• Surgical Navigation and Robotics: Utilization of computer-aided surgery, including navigation systems, surgical jigs, and robotic assistance, to improve surgical accuracy and outcomes.
• 3D Printing Applications: 3D printing technology is used to create patient-specific implants and surgical guides to enhance precision and functionality.
• Advanced Imaging Technologies: Role of CT-guided, MR-guided, and fluorescence-guided navigation in planning and executing surgeries, as well as real-time assessment of resection quality.
• Immersive Technologies: Incorporation of Virtual Reality (VR), Augmented Reality (AR), Mixed Reality (MR), or other Spatial Computing in orthopaedic oncology to improve surgical planning and execution.
• AI in Decision Making: Use of artificial intelligence to refine decision-making processes and develop personalized treatment algorithms.
