
Neurology and Neurosurgery
Tbilisi
Neurology and Neurosurgery care in Tbilisi is available at 3 hospitals in the Voumed network, with 4 related treatments.
Neurology and neurosurgery are the medical and surgical branches that care for the brain, spinal cord, nerves and muscles. Neurology leads on diagnosis and non-surgical treatment of conditions such as stroke, epilepsy, migraine, multiple sclerosis, Parkinson's disease and dementia, while neurosurgery operates on the brain and spine when surgery is the better path. Together they cover everything from a sudden stroke to a slow-growing brain tumour or a worn disc pressing on a nerve. Patients often travel abroad for this care because complex brain and spine work depends on experienced teams, advanced imaging and modern operating technology, and because a fast, coordinated assessment can make a real difference to the outcome.
On this page
At a glance
- Sub-specialties
- stroke and cerebrovascular neurology, epilepsy, movement disorders, neuro-oncology, spinal neurosurgery, functional neurosurgery, neuromuscular disease
- Common procedures
- brain tumour surgery, spinal and disc surgery, deep brain stimulation, epilepsy surgery, aneurysm and vascular treatment, clot removal for stroke
- Common reasons to travel
- experienced surgical teams, advanced imaging and navigation technology, rapid diagnosis and a multidisciplinary plan
- Typical hospital stay
- day case or 1 to 2 nights for minor procedures, several days to about a week for major brain or spine surgery
- Anaesthesia
- general for most operations, with some functional and awake procedures using sedation and local anaesthesia by design
- Typical first step
- a neurological consultation with imaging review, so the cause is understood before any treatment is planned
Overview
Neurology and neurosurgery are two halves of the same field, divided by how a problem is best treated rather than by which organ is involved. A neurologist examines the nervous system, reaches a diagnosis and manages most conditions with medication, rehabilitation and close follow-up. A neurosurgeon steps in when a structural problem, such as a tumour, a bleed, a trapped nerve or severe epilepsy, is better solved with an operation. The two work as one team, so a patient moves smoothly from assessment to the right treatment. Because the nervous system controls movement, sensation, speech and thought, the goal of care is always to protect function as carefully as it treats the disease, and modern techniques are chosen with that balance in mind.
Conditions and sub-specialties
The range of conditions is wide. Cerebrovascular work covers stroke, brain aneurysms and narrowed vessels, where speed protects brain tissue. Epilepsy care diagnoses and controls seizures and identifies the smaller group of patients who may benefit from surgery. Movement disorder teams treat Parkinson's disease, essential tremor and dystonia. Neuro-oncology and skull base surgery handle tumours of the brain, its coverings and the nerves around it. Spinal neurosurgery addresses herniated discs, narrowed canals, spinal tumours and instability that cause back or neck pain, numbness or weakness. Other areas include multiple sclerosis and other inflammatory conditions, headache and migraine, neuromuscular and peripheral nerve disease, sleep disorders, dementia and hydrocephalus. Many patients are followed jointly with other specialties, since the nervous system touches almost every part of the body.
Common treatments and procedures
Treatment ranges from medication and rehabilitation to highly precise surgery. On the medical side, neurologists manage stroke prevention, seizure control, migraine therapy, immune treatments for multiple sclerosis and drug therapy for movement disorders. Surgical options include removing brain and spinal tumours, repairing aneurysms and treating narrowed vessels, decompressing or fusing the spine for disc and nerve problems, and clearing a clot quickly in acute stroke. When seizures or tremor cannot be controlled by drugs, functional neurosurgery offers options such as epilepsy surgery and deep brain stimulation, which places fine electrodes to calm abnormal activity. Increasingly this work is minimally invasive and image guided, using microsurgery, endoscopy and computer navigation to reach the target through the smallest safe opening, protect healthy tissue and support a faster recovery.
Diagnostics and technology
Accurate diagnosis is the foundation of safe neurological care, and it begins with a detailed history and a hands-on neurological examination. Imaging then maps the problem in fine detail, using MRI and CT of the brain and spine, angiography to study blood vessels, and functional and diffusion studies that show how specific areas work and connect. Electrical tests such as EEG record brain activity in epilepsy, while nerve conduction studies and electromyography assess nerves and muscles. In the operating room, surgical microscopes, neuronavigation, intraoperative imaging and continuous monitoring of nerve function help the surgeon work precisely and protect movement, speech and sensation. This combination of careful examination and advanced technology is what allows complex conditions to be treated with confidence.
What to expect as an international patient
For people who travel, care usually begins with a remote review of existing scans and reports, so a provisional plan is in place before arrival. An in person consultation and any further imaging then confirm the diagnosis and the recommended approach. Length of stay depends entirely on the treatment: a diagnostic visit or minor procedure may need only a few days, while major brain or spine surgery usually means several days in hospital and a further period nearby before it is safe to fly. The care team gives clear, written advice on recovery, medication and warning signs, and arranges remote follow-up once the patient is home. Interpreter and international patient services are widely available to support consent, daily questions and coordination throughout the stay.
Frequently asked questions
These answers are general guidance and may vary by provider. Confirm the details with the hospital you choose.
What is the difference between neurology and neurosurgery?
Neurology diagnoses and treats nervous system conditions mainly without surgery, using medication, rehabilitation and follow-up, while neurosurgery operates on the brain and spine when an operation is the best option. The two work as one team, so you are guided to the right treatment after a full assessment.
How long should I plan to stay abroad for brain or spine surgery?
It depends on the procedure. A diagnostic visit or minor procedure may need only a few days, while major brain or spine surgery usually means several days in hospital and about one to two weeks in total in the destination city, so the team can confirm healing before you travel home.
Will I be asleep during the operation, or are some procedures done awake?
Most operations are carried out under general anaesthesia. A small number of procedures near areas that control speech or movement are performed with sedation and local anaesthesia so you can respond to simple tasks, which helps the surgeon protect those vital functions. Your team will explain in advance which applies to you.
When can I fly home after neurosurgery?
After major brain or spine surgery, many patients are advised to wait until the surgeon confirms the wound is healing and there are no early complications, often around one to two weeks. The exact timing is personal, and your team will give clear advice before you book a return flight, since flying too soon can carry added risk.
Is it safe to travel abroad for treatment of a brain tumour or epilepsy?
It can be, when care is provided by experienced neurosurgical and neurology teams in a properly equipped hospital with advanced imaging and monitoring. Sharing your scans in advance, choosing an accredited centre and allowing enough recovery time before flying are the keys to a safe experience.
Can Parkinson's disease or tremor be treated when medication is no longer enough?
Yes. For selected patients whose symptoms are not well controlled by drugs, functional neurosurgery offers deep brain stimulation, which uses fine electrodes to calm the abnormal activity behind tremor and stiffness. Suitability is decided carefully after detailed assessment by a specialist team.
Will there be interpreter or language support during my stay?
Yes. International patient services commonly include interpreters and coordinators who help with appointments, consent forms, instructions and everyday questions, so that language is never a barrier to understanding your diagnosis and treatment.
How does follow-up work once I am back home?
Your team provides a written plan covering medication, activity and any warning signs, and arranges remote follow-up by message or video. Routine checks, stitch removal and local scans can usually be done by a clinician near your home, while your treating team stays reachable to review results and adjust the plan as you recover.
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Procedures
Technologies and equipment
ROSA Robotic Surgical Assistant
ROSA is a robotic surgical assistant that helps the surgeon plan and carry out delicate operations with very high accuracy. It is used in two main areas: joint replacement, where it guides bone preparation and implant placement, and brain surgery, where it helps reach precise targets deep in the brain. In both settings the system turns the patient's own scans into a detailed three-dimensional map, and a steady robotic arm then follows the plan the surgeon has set. The surgeon remains fully in control; ROSA adds precision and stability rather than acting on its own.
View technology→Gamma Knife
Gamma Knife is a form of stereotactic radiosurgery, a highly precise way of treating targets deep inside the head without any cut, incision or general anaesthesia. Despite its name it is not a knife and involves no surgery in the usual sense. Instead, hundreds of finely focused beams of gamma radiation are aimed from many angles so that they all meet at a single point. Each beam alone is too weak to harm the tissue it passes through, but where they converge a strong, sharply shaped dose is delivered to the target while the surrounding healthy brain is largely spared. It offers a non-invasive option for tumours and other lesions that may be difficult or risky to reach with open surgery.
View technology→CyberKnife M6
CyberKnife M6 is a robotic system for stereotactic radiosurgery and stereotactic body radiotherapy (SBRT). Despite the name, there is no knife and no cutting. A small linear accelerator sits on a computer-guided robotic arm and delivers many thin beams of focused radiation from hundreds of angles. The beams converge on the tumour with sub-millimetre accuracy, so a high dose reaches the target while nearby healthy tissue is spared. Imaging during treatment tracks the tumour continuously, and a motion-synchronisation feature follows targets that move with breathing, such as those in the lung or liver. Treatment is non-invasive and painless, needs no rigid head frame, and is usually given as an outpatient over one to five sessions. The decision is always made individually by the radiation oncology team.
View technology→Hybrid Operating Room
A hybrid operating room is a surgical theatre that combines a full operating room with advanced, built-in medical imaging in the same space. Instead of relying on portable equipment or moving a patient to a separate scanning room, the team has a fixed, high-resolution imaging system, such as a robotic angiography arm, a CT scanner or an MRI, positioned right at the operating table. This lets surgeons see detailed live pictures of the body during the procedure and combine open surgery with minimally invasive, catheter-based techniques in a single session. For the patient, it can mean a less invasive operation, immediate confirmation that the surgery worked, fewer transfers between rooms and, often, a safer option when the case is complex or high-risk.
View technology→O-Arm
The O-arm is an intraoperative imaging system that rotates a full circle around the patient to produce real-time, high-resolution cross-sectional images while surgery is underway. In effect it brings a mobile CT-style scanner into the operating room, so the surgeon can see the exact position of bone, instruments and implants at the moment they are being placed, rather than relying only on images taken before the operation. It is used mainly in spine, brain and nerve, and orthopaedic trauma surgery, where it gives precise guidance for critical steps and supports greater accuracy and safety.
View technology→3 Tesla MRI
3 Tesla MRI is a high-field magnetic resonance imaging scanner that produces exceptionally detailed pictures of the inside of the body. The "3 Tesla" refers to the strength of its magnet, which is about twice that of a standard MRI scanner, and this extra power allows sharper, higher-resolution images, often in less time. Like all MRI, it uses a strong magnetic field and radio waves rather than X-rays, so there is no ionising radiation involved. It is especially valuable for examining the brain, the nervous system, joints and soft tissues, helping doctors detect and characterise problems that may be hard to see on other scans.
View technology→Intraoperative MRI
Intraoperative MRI, also called operating room MRI, brings the power of magnetic resonance imaging directly into surgery. A specially designed scanner, integrated into the operating room, lets the surgical team obtain detailed pictures of the brain or spine while the operation is still under way. This means the surgeon can check progress during the procedure rather than waiting for a scan afterwards. Like all MRI, it uses a magnetic field and radio waves instead of X-rays, so it adds no ionising radiation. It is especially valuable for delicate tumour surgery, where seeing the result in real time can improve the outcome.
View technology→Functional MRI (fMRI)
Functional MRI, often shortened to fMRI, is a special kind of magnetic resonance imaging that maps activity in the brain rather than just its structure. While a standard MRI shows the shape of the brain, fMRI reveals which regions switch on when a person performs a task such as speaking, moving a hand or sensing touch. It does this by detecting tiny changes in blood flow and oxygen that follow brain activity, all without ionising radiation. This makes it an invaluable planning tool before surgery or other treatments near important parts of the brain.
View technology→Neuronavigation
Neuronavigation is an image-guided surgical system that acts like a precise map and GPS for the brain and spine. Using the patient's own scans built into a three-dimensional model, it shows the surgeon exactly where the instruments are inside the body in real time, so the safest, shortest route to a lesion can be planned and followed. This is especially important in the brain and spine, where targets are often small, deep and surrounded by critical nerves and blood vessels. By guiding the surgeon away from healthy structures, neuronavigation supports accuracy, smaller approaches and added safety.
View technology→Intraoperative Neuromonitoring
Intraoperative neuromonitoring is a technology that continuously checks the function of nerves and the spinal cord while brain and spine surgery is being performed. Small sensors record the electrical activity that travels along the nerves, so the surgical team gets a live warning the moment a sensitive nerve is at risk, before any lasting damage occurs. This early warning lets the surgeon adjust technique in real time and is used to help protect movement, sensation, hearing and other vital functions. It is a key safety tool in operations close to the brain, spinal cord and critical nerves.
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