Cadaveric Finger Simulator

The MQ TOR Lab cadaveric finger simulator, developed by Dr Mohammad Haddara, is an in-vitro finger motion simulator with closed-loop tendon load control and simultaneous tendon excursion control.

The Project

This state-of-the-art cadaveric finger simulator exhibits an exceptional capacity to replicate the intricate dynamics of in-vivo finger motion under both load and tendon excursion control within a closed loop system.

This project took root in 2015 as part of a Master's program, with its initial objective being the development and validation of this simulator. As the project gained momentum and recognition, it subsequently evolved into a doctoral program, with an emphasis on addressing scenarios of real clinical relevance. This included the development of advanced finger kinematic protocols in order to enhance our understanding of finger biomechanics and to offer significant clinical value for the medical community. Furthermore, these protocols allowed the assessment of surgical techniques and rehab protocols in effort to answer some of the most challenging questions.

The vision

The primary vision of this simulator is to create a platform that enables clinicians and surgeons an invaluable opportunity to explore and experiment with a wide range of surgical techniques and approaches, which would be impossible on living patients within a primary care setting. By mimicking true in-vivo conditions, it empowers practitioners to thoroughly evaluate the effects of their interventions, enhancing their understanding and proficiency. This, in turn, contributes to improved patient outcomes and ultimately elevates the quality of care offered in the field of surgery.

At its core, the aim of this simulator is to have a profound impact on the quality of life of future patients who have experienced trauma or require surgical intervention. By equipping surgeons and clinicians with a tool that fosters innovation and skill development, it aspires to ensure that patients receive the highest standard of care, ultimately enhancing their postoperative recovery and overall well-being. In this regard, the simulator represents a critical step toward advancing medical practice and positively impacting the lives of individuals who depend on surgical expertise.

The collaborations

  • Department of hand therapy at MQ University

  • Pipeline projects for PIP joint replacement

  • Projective study in collaboration with two surgeons from New Zealand on tetraplegia and tendon transfer