In neurosurgery, precise and efficient surgery is crucial for the rehabilitation of patients. With the continuous development of medical technology, ultrasound scanners have gradually become an important auxiliary and monitoring tool in neurosurgery surgery. This article will delve into the application of ultrasound scanners in neurosurgery surgery and their significant impact.

Ultrasonic scanner is a device that uses high-frequency sound waves to non-invasive image the interior of an object. In neurosurgery surgery, ultrasound scanners can obtain real-time and continuous three-dimensional images of the patient's brain tissue structure, providing accurate navigation information for surgeons. This enables surgeons to quickly and accurately determine the location of lesions during the surgery process, reducing damage to normal tissues, and thereby improving the success rate of the surgery.

Firstly, ultrasound scanners have the function of real-time intraoperative navigation. In neurosurgery surgery, navigation systems can accurately guide surgeons to the lesion site through real-time three-dimensional images provided by ultrasound scanners. This to some extent reduces the difficulty of the surgery, reduces the surgical time, and improves the safety of the surgery. For example, in brain tumor resection surgery, ultrasound scanners can help surgeons accurately determine the location, size, and shape of the tumor, guide the placement of surgical instruments, and ensure the accuracy and safety of the surgery.

Secondly, ultrasound scanners can also assist in intraoperative monitoring. In neurosurgery, maintaining the stability of the patient's brain function is crucial. Ultrasound scanners can monitor patients' brain blood flow, EEG activity, and other conditions in real-time, providing important intraoperative reference information for surgeons. For example, in epilepsy surgery, ultrasound scanners can help surgeons determine the location of epileptic lesions by monitoring brain electrical activity. In addition, ultrasound scanners can also monitor brain blood flow in real-time during surgery, ensuring the stability of brain blood flow and ensuring the safety of patients' lives.

In addition, ultrasound scanners also have a role in postoperative evaluation. After the completion of neurosurgery surgery, ultrasound scanners can evaluate the surgical effect and help surgeons determine the success of the surgery. For example, after surgery for intracranial hemorrhage, an ultrasound scanner can clearly display whether the bleeding site has been effectively cleared, providing important decision-making basis for surgeons.

It is worth mentioning that the application of ultrasound scanners in neurosurgery is not limited to the aforementioned aspects. In fact, with the continuous development of technology, the functions of ultrasonic scanners are also constantly expanding and improving. For example, the intraoperative color Doppler ultrasound scanner that has emerged in recent years can monitor the speed and direction of brain blood flow in real-time during surgery, providing surgeons with richer intraoperative reference information.

Overall, ultrasound scanners play a crucial role in neurosurgical procedures. Through real-time intraoperative navigation, intraoperative monitoring, and postoperative evaluation functions, ultrasound scanners provide surgeons with accurate navigation information and important intraoperative reference information, improving the success rate and safety of surgery. In the future, with the continuous development of medical technology, we have reason to believe that ultrasound scanners will be more widely used in neurosurgery surgery, bringing better treatment results to patients.