Linear Accelerator Radiosurgery, also known as LINAC Radiosurgery, is a precise and non-invasive medical procedure used to deliver high-energy X-ray beams or radiation to treat various types of tumors and lesions within the body. It involves the use of a linear accelerator machine, which generates and delivers highly focused radiation beams directly onto the target area.
This specialized form of radiation therapy is primarily used in the field of oncology to treat both malignant and benign conditions, ranging from brain tumors, arteriovenous malformations (AVMs), trigeminal neuralgia, to certain cancers in the lung, liver, prostate, and other locations. It provides an alternative to traditional surgical procedures, often eliminating the need for incisions, anesthesia, and a prolonged hospital stay.
During the procedure, the patient is positioned on a treatment table, and a specially designed head frame or body mask may be used to immobilize and accurately position the patient. The linear accelerator machine then delivers highly precise and targeted radiation beams from different directions, conforming to the shape and size of the tumor. This allows for the maximum destruction of cancer cells while minimizing the damage to surrounding healthy tissues.
Linear Accelerator Radiosurgery offers several advantages, including shorter treatment times, reduced risk of complications, and improved patient comfort compared to conventional surgery. Additionally, it enables a high level of precision, enabling medical professionals to deliver highly localized radiation doses with sub-millimeter accuracy.
Overall, Linear Accelerator Radiosurgery is a cutting-edge medical technique that harnesses the power of radiation therapy to effectively treat tumors and lesions, providing patients with a non-invasive and highly targeted alternative to conventional surgery.
