

Sony unveiled a microsurgery robot that demonstrated its precision by operating on a kernel of corn. The device, which mimics the movements of a surgeon's hands, was showcased at the International Conference in Yokohama, Japan. This technology aims to assist in delicate surgeries involving small tissues and reduce the workload on surgeons in an aging society with a shrinking medical workforce.

Sony's new microsurgery assistance robot tool has several features that enable it to assist in microsurgeries:
Automatic Instrument Exchange: The tool allows for automatic exchange of surgical instruments, which are miniaturized and stored near the robot arm. This eliminates the need for manual intervention during instrument exchanges, making the process faster and smoother.
Precision Control: The tool is equipped with a highly sensitive control device that captures the movements of the surgeon's hands and fingers. This allows for stable and high-precision control, closely resembling the delicate movements of human fingertips and wrists.
4K Imaging Technology: The prototype is equipped with 1.3-type 4K OLED Microdisplays developed by Sony Semiconductor Solutions Corporation. These displays provide high-definition images of the affected area and the movement of surgical instruments, offering visual support for precision operations.
Motion Scaling Technique: The movements of the surgeon's hands on the console are replicated at a reduced scale of about 1/2 to 1/10 at the tip of the robot arm's surgical instrument. This motion scaling technique enables surgeons to perform precise operations beyond their physical limitations.
These features collectively enhance the capabilities of surgeons, allowing them to perform complex microsurgeries with greater precision and ease.

Sony's surgical robot has the potential to significantly contribute to the advancement of medical services in several ways:
Increased precision and control: The robot is designed to replicate the movements of a surgeon's hands and fingers, allowing for extremely precise and controlled movements. This could potentially enable surgeons to perform complex procedures that were previously impossible or extremely difficult.
Automation of tasks: The robot is capable of automatic surgical instrument exchange, which can save time and reduce the workload of surgeons and their assistants4. This automation could potentially make surgeries more efficient and reduce the risk of errors.
Improved training: The robot could potentially be used as a training tool for novice surgeons, allowing them to practice and hone their skills in a controlled environment. The robot's ability to replicate the movements of a surgeon's hands and fingers could provide a realistic training experience.
Increased access to advanced surgery: By reducing the workload of surgeons and potentially enabling less experienced surgeons to perform complex procedures, the robot could help to increase access to advanced surgical procedures. This could be particularly beneficial in areas where there is a shortage of skilled surgeons.
Reduction of surgeon workload: The use of surgical robots could potentially reduce the physical and mental workload of surgeons, allowing them to perform more procedures without experiencing fatigue. This could help to increase the efficiency of surgical departments and reduce waiting times for patients.
Potential for remote surgery: The robot is controlled by a tabletop console, which could potentially be located remotely. This could open up the possibility of remote surgery, where a surgeon could perform a procedure from a different location to the patient. This could be particularly beneficial in emergency situations or in areas where there is a shortage of local surgical expertise.