Oncology

Oncology

Istanbul

Oncology care in Istanbul is available at 12 hospitals in the Voumed network, with 2 related treatments.

Oncology is the branch of medicine that diagnoses, treats and follows cancer, the group of diseases in which abnormal cells grow and can spread through the body. Modern cancer care is a team effort: medical oncology uses drug treatments such as chemotherapy, targeted therapy and immunotherapy, radiation oncology treats with precisely focused radiation, and surgical oncology removes tumours, while pathology, radiology, nuclear medicine and supportive care knit the plan together. Because no single specialist sees the whole picture alone, the most important decisions are usually made by a multidisciplinary tumour board that agrees one personalised plan. Patients often travel abroad for cancer care to reach experienced cancer teams, advanced radiotherapy and imaging, and timely access to treatment, all coordinated under one roof.

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At a glance

Sub-specialties
medical oncology, radiation oncology, surgical oncology, haemato-oncology, nuclear medicine, interventional oncology
Common treatments
chemotherapy, targeted therapy and immunotherapy, radiotherapy, cancer surgery, ablation and artery directed therapies, bone marrow transplant
Common reasons to travel
experienced multidisciplinary cancer teams, advanced radiotherapy and PET imaging, timely access and second opinions
Typical hospital stay
many treatments are outpatient or a day case, with longer admission for major surgery or transplant
Anaesthesia
none for most drug and radiation treatment, local for some procedures, general for cancer surgery
Typical first step
review of pathology and scans, accurate staging, and a plan agreed by the tumour board

Overview

Cancer care follows a clear sequence that is shaped to the individual diagnosis. It begins with a precise diagnosis from a biopsy and pathology, then accurate staging with imaging to learn the type of cancer and whether it has spread, because the right treatment depends entirely on getting these two answers right. From there a tumour board, made up of the relevant specialists, agrees a plan that may combine surgery, drug therapy and radiation in a particular order. Treatment is increasingly personalised: molecular and genetic testing of the tumour can reveal targets that match specific drugs, so therapy is chosen for the biology of that cancer rather than a single standard regimen. Throughout, supportive care manages symptoms and side effects and protects quality of life, and survivorship follow up watches for recurrence and helps recovery. The aim is always the best possible outcome with the least possible burden.

Conditions and sub-specialties

Oncology covers cancers arising anywhere in the body, and most centres organise care around tumour type. Common solid tumours include breast, lung, colorectal, prostate, stomach and gynaecological cancers, while haemato-oncology treats cancers of the blood and lymphatic system such as lymphoma, leukaemia and myeloma, often with bone marrow transplant as an option. Medical oncology leads systemic drug treatment, radiation oncology delivers radiotherapy, and surgical oncology performs cancer operations, frequently with organ preserving and minimally invasive techniques. Nuclear medicine contributes both imaging and certain targeted treatments, and interventional oncology offers image guided therapies through a needle. Children's cancers are managed by dedicated paediatric oncology teams. Bringing these disciplines together means a patient with a complex cancer is assessed from every relevant angle in one coordinated programme.

Common treatments and procedures

The main treatments are used alone or in combination according to the plan. Medical oncology delivers chemotherapy and, increasingly, targeted, so called smart, drugs and immunotherapy that harnesses the immune system, options chosen in line with international guidelines and the patient's situation. Radiation oncology uses advanced systems to focus radiation precisely on the tumour while sparing healthy tissue, allowing comfortable treatment with fewer side effects. Surgical oncology removes tumours and affected tissue, often with laparoscopic, robotic and organ preserving approaches. Interventional radiology can destroy tumours through a small needle puncture using ablation, and can deliver artery directed therapies that concentrate treatment in the tumour. For blood cancers, bone marrow transplant can be part of curative treatment. Supportive treatments, from anti sickness medication to pain control and nutrition, run alongside to keep the patient as well as possible.

Diagnostics and technology

Accurate diagnosis and staging guide every decision, and imaging is central to both. PET-CT combines a metabolic scan with a CT to locate the cancer focus and reveal whether disease has spread to distant organs, detecting small lesions with high resolution. CT and MRI map the tumour's size and relationship to nearby structures, and ultrasound and endoscopy help reach and sample lesions. The definitive answer comes from pathology, where a biopsy is examined under the microscope and tested for molecular and genetic markers that can match a patient to targeted or immune therapy. Blood tests and tumour markers help monitor response over time. Together these tools confirm the type and stage of the cancer, so the team can choose treatment with precision and track how well it is working.

What to expect as an international patient

For people who travel, the journey usually begins with a remote review of existing pathology, scans and reports, so a provisional plan can be discussed before arrival. On arrival, the diagnosis and staging are confirmed, sometimes with a repeat biopsy or fresh imaging, and the tumour board agrees the definitive plan. The length of stay depends on the treatment: some patients come for a defined course of radiotherapy or a cycle of drug treatment, others for surgery followed by recovery, and follow up cycles may be arranged so that part of the care can continue at home. Most patients plan for a stay that matches their specific treatment phase, and the team explains this clearly in advance. Interpreter and international patient support helps with appointments, consent and instructions, and a written plan and remote follow up keep care connected once you return home.

Frequently asked questions

These answers are general guidance and may vary by provider. Confirm the details with the hospital you choose.

How is a cancer treatment plan decided?

The plan is agreed by a multidisciplinary tumour board, where medical, radiation and surgical oncologists, together with radiologists, pathologists and other specialists, review your diagnosis and staging and agree one personalised approach. This shared decision means the recommendation reflects the full picture of your cancer rather than the view of a single doctor, and it can combine surgery, drug therapy and radiation in the order best for you.

Should I get a second opinion before treatment?

A second opinion is a normal and reasonable step, especially for a complex or unusual cancer or when treatment options differ. Reviewing your pathology and scans afresh can confirm the diagnosis and staging and check that the proposed plan is the best one. Many international patients travel specifically for a second opinion, and a good team welcomes it as part of careful, evidence based care.

Will I need chemotherapy, radiotherapy or surgery?

It depends on the type and stage of your cancer. Some cancers are treated mainly with surgery, others mainly with drug therapy or radiation, and many with a planned combination. After staging, the tumour board explains which treatments are recommended, in what order and why, so you understand the plan and what each step is intended to achieve.

How long will I need to stay abroad?

This varies with the treatment. A course of radiotherapy or a cycle of drug treatment runs over a defined number of days or weeks, while surgery means an admission plus a recovery period before travel. The team gives you a clear schedule in advance, and where possible follow up cycles can be arranged so that part of your treatment continues closer to home.

Are chemotherapy and radiotherapy done under anaesthesia?

No. Chemotherapy is usually given as an infusion or tablets without anaesthesia, often as an outpatient, and radiotherapy is painless and needs no anaesthesia, with each session lasting only minutes. Anaesthesia is used for cancer surgery and for some procedures such as certain biopsies or ablation, and the team explains beforehand what each treatment involves.

Is it safe to travel for cancer treatment, and can I fly during it?

Travelling for cancer care can be safe when it is coordinated by an experienced team in an accredited centre and your fitness to travel is assessed. Whether you can fly between treatments depends on your blood counts, recent surgery and overall condition, so the team advises on timing. Sharing your full history in advance and following the plan closely are the keys to safe, connected care.

How does follow up work once I am home?

Cancer follow up continues for years, so the team gives you a written plan covering medication, warning signs and the schedule of scans and blood tests. Much of this monitoring can be done by an oncologist near your home and shared with the team, who remain reachable to review results, adjust treatment and answer questions, keeping your care joined up across borders.

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Available at these hospitals

Procedures

Technologies and equipment

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.

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TomoTherapy

TomoTherapy is an image-guided radiotherapy system that delivers radiation in a continuous spiral as the treatment ring rotates around the patient, much like a CT scanner. Built-in CT imaging lets the radiation oncology team confirm the tumour's exact position before every session, and the beam is divided into many small beamlets that paint the dose precisely onto the target. This slice-by-slice approach is well suited to complex or unusually shaped tumours and to large or long treatment areas, while keeping nearby healthy organs better protected.

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Ethos Adaptive Radiotherapy

Ethos is an adaptive radiotherapy system that uses artificial intelligence to tailor each cancer treatment to the patient's anatomy on the very day it is delivered. Bodies change a little from session to session: a tumour can shrink, organs shift, the bladder or bowel fill differently. Ethos takes a fresh image at the start of every session, detects these changes and, with AI support, can generate an updated plan in minutes rather than the hours such replanning would normally take, so the dose stays focused on the tumour while better protecting healthy organs.

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SPECT-CT

SPECT-CT is a nuclear medicine imaging method that merges single photon emission computed tomography with computed tomography in one device, capturing both how an organ functions and its anatomical structure in a single session. A low-dose radiopharmaceutical is injected and gathers in the target tissue, where a rotating gamma camera builds three-dimensional functional images while the CT scan defines the exact location within the body. By showing not just the shape of a structure but how active it is, SPECT-CT helps doctors find disease, pinpoint exactly where it sits, and plan treatment with greater confidence.

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Varian Edge

Varian Edge is an advanced radiosurgery platform, a high-precision machine that treats tumours with very focused beams of radiation delivered from outside the body, without any cutting. It is built for stereotactic radiosurgery and stereotactic body radiotherapy, two techniques that concentrate a high dose of radiation onto the exact shape of a target while protecting the healthy tissue around it. Image guidance and real-time motion management track tiny patient or tumour movement and keep the beam on target with sub-millimetre accuracy. Treatment is painless, needs no rigid head frame for brain targets, and is usually completed in a small number of short outpatient sessions. The radiation oncology team always plans each case individually.

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PET-CT

PET-CT is an advanced hybrid imaging method that combines positron emission tomography with computed tomography in a single scan, mapping both the metabolic activity and the anatomical structure of the body at once. A small dose of a radioactive tracer, often a glucose analogue, is injected and gathers in cells that are working harder than normal, which is typical of many tumours. Because it can show where a disease is active before it changes the shape of an organ, PET-CT is one of the most valuable tools for detecting cancer, working out how far it has spread, and checking whether treatment is working.

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Scalp Cooling System

A scalp cooling system is a supportive technology that helps reduce hair loss during chemotherapy, one of the side effects patients often find most distressing. The patient wears a snug cap that gently chills the scalp before, during and after the chemotherapy session. Cooling narrows the small blood vessels in the scalp and slows the activity of the hair follicles, so that less of the chemotherapy drug reaches them and they are less affected. For many people, this helps keep more of their own hair through treatment, which can make a meaningful difference to confidence and daily life.

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Intraoperative Radiotherapy (IORT)

Intraoperative radiotherapy, or IORT, is a way of giving a single, focused dose of radiation directly to the area at highest risk during the operation itself, right after the tumour has been removed and while the patient is still asleep under anaesthesia. With the surgical wound open, the team can place the radiation applicator exactly on the tissue that needs it and gently move skin and nearby organs out of the path of the beam. The result is treatment that is aimed precisely where cancer cells are most likely to remain, while healthy tissue is shielded. For suitable patients, especially in early breast cancer, one intraoperative dose can replace or greatly shorten several weeks of radiotherapy after surgery.

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Brachytherapy

Brachytherapy is a form of internal radiotherapy in which a radiation source is placed inside the body, right at or next to the tumour, rather than aimed from outside. Because the source sits so close to the target, it can deliver a high, very localised dose while the radiation falls off sharply over a short distance, sparing the healthy tissue around it. Modern systems automate this safely: thin tubes are guided to the tumour, the source travels through them along a precise plan, and it is withdrawn at the end, leaving no radiation behind in the body.

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TrueBeam STx

TrueBeam STx is an advanced linear accelerator, a machine that delivers external radiotherapy to treat cancer with very high precision. It shapes powerful radiation beams to match the exact size and shape of a tumour and aims them from many angles, so that a strong dose reaches the target while nearby healthy tissue and organs receive as little as possible. Because it tracks the target and can account for movement such as breathing, it is accurate to within millimetres. This makes it suitable both for conventional, daily radiotherapy and for advanced focused techniques that treat a tumour in only a few sessions. The treatment is non-invasive and painless, with nothing entering the body.

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Elekta Versa HD Signature

Elekta Versa HD is a high-definition linear accelerator, a machine that treats cancer with precisely shaped beams of radiation from outside the body. It combines image guidance with advanced beam-shaping so the radiation oncology team can target a tumour very accurately while protecting the healthy organs and tissue around it. Because the beam can be reshaped to match the exact outline of the tumour, treatment is both more precise and more comfortable, and most people continue their normal daily routine throughout the course.

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Whole Body MRI

Whole body MRI examines the entire body in a single session, from the head down to the upper legs and sometimes the feet, producing one connected set of detailed images. It uses a strong magnetic field and radio waves rather than X-rays, so the examination involves no ionising radiation. By covering many organs and regions at once, it offers a broad overview that can pick up disease at an early stage. This makes it useful both as a screening tool for people who want a thorough check and as a way to look at conditions that may affect more than one part of the body.

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Digital Mammography

Digital mammography is a low-dose X-ray method used to screen for and detect breast cancer at an early stage. It captures very high-resolution digital images of the breast that a radiologist can examine and enhance on screen, revealing small nodules, masses and tiny specks of calcium that may not be felt or seen on other tests. Because it can find changes long before they cause symptoms, it is the cornerstone of breast cancer screening and one of the most effective tools for catching the disease when it is most treatable.

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Tomosynthesis Mammography (3D Mammography)

Tomosynthesis mammography, often called 3D mammography, is an advanced form of digital mammography that builds a three-dimensional picture of the breast from a series of thin layers. Instead of a single flat image in which overlapping tissue can hide or mimic a problem, it lets the radiologist scroll through the breast slice by slice on a high-resolution screen. This makes small lesions and tumours easier to see and helps distinguish real findings from harmless overlapping tissue, which is especially valuable for screening and for women with dense breasts.

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Endoscopic Ultrasound (EUS)

Endoscopic ultrasound (EUS) combines endoscopy and ultrasound in a single thin instrument, allowing the deeper layers of the digestive tract and the organs and tissues around it to be examined in detail. By placing a tiny ultrasound probe at the tip of an endoscope and guiding it inside the body, very close to the area of interest, it produces highly detailed images of structures such as the pancreas, bile ducts and nearby lymph nodes that can be hard to see from the outside. When needed, a fine needle can take a sample for the laboratory during the same procedure, all without any surgical incision.

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FAPI PET/CT

FAPI PET/CT is an advanced oncological imaging technique used to detect cancer and assess how far it has spread. It uses a tracer called FAPI, short for fibroblast activation protein inhibitor, which targets the supportive cells that surround and feed many tumours rather than the sugar uptake measured by a standard PET scan. Labelled with a radioactive isotope and combined with PET and CT, it produces detailed three-dimensional images that can highlight tumours and their spread, sometimes more clearly than conventional methods, and is especially useful for cancer types that are hard to see on a routine scan.

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HIFU for Prostate Cancer

HIFU (High Intensity Focused Ultrasound) is a non-surgical, targeted treatment for prostate cancer that destroys diseased tissue using precisely focused sound waves, without any cut to the body. A probe placed in the back passage delivers focused ultrasound energy that heats and destroys only the cancerous part of the prostate, while sparing the healthy tissue and nearby structures as much as possible. Because it is so targeted, HIFU aims to treat the cancer while protecting urinary control and sexual function. It is mainly used for early, localised prostate cancer and for men who want a minimally invasive option.

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NanoKnife (Irreversible Electroporation)

NanoKnife is an ablation technology, known medically as irreversible electroporation (IRE), that destroys tumour cells using short pulses of high-voltage electrical current rather than heat or cold. The current opens tiny, permanent holes in the membrane of the tumour cells, causing them to die, while the surrounding framework of tissue is largely preserved. Because it does not burn or freeze, it can be used to treat tumours that lie very close to blood vessels, bile ducts and nerves, where heat-based or cold-based methods would risk serious damage. This makes it a valuable option for selected tumours that cannot be removed by surgery.

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Aiforia AI Pathology

Aiforia is an artificial intelligence assisted pathology software that helps doctors analyse tissue samples taken during a biopsy or surgery. After a sample is placed on a glass slide and scanned into a high-resolution digital image, the software uses trained AI to measure and highlight features in the tissue, supporting the pathologist who makes the diagnosis. It carries a CE-IVD marking for in vitro diagnostic use and is applied in cancers such as breast, prostate, lung and skin. Importantly, it is a decision-support tool: it assists and adds consistency, but the pathologist remains responsible for the final diagnosis.

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MR-Linac (MRI-Guided Radiotherapy)

MR-Linac combines a radiotherapy machine with an MRI scanner in a single device, so the radiation oncology team can watch the tumour and the soft tissue around it in real time while treatment is being delivered. Standard radiotherapy relies on planning scans taken on earlier days, but tumours and organs shift slightly from session to session and even with breathing. By seeing the target live, MR-Linac lets the team adapt the plan each day and pause or steer the beam as the tumour moves, delivering a precise dose where it is needed while better protecting healthy tissue.

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512-Slice CT

512-slice CT is a very fast, high-detail computed tomography scanner that captures a large number of thin image slices with each rotation. By gathering so much information so quickly, it can build detailed three-dimensional pictures of the body in a single short breath-hold. This speed is especially valuable for imaging moving organs such as the heart, where a fast scan freezes motion and produces sharp images. It uses X-rays, like all CT, but modern scanners of this kind are designed to keep the radiation dose as low as possible.

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Dual-Energy CT

Dual-energy CT is an advanced form of computed tomography that scans the body at two different X-ray energy levels at the same time. A standard CT uses a single energy and shows mainly the shape and density of tissues, but by comparing how structures behave at two energies, dual-energy CT can tell different materials apart far more precisely. This added information helps doctors characterise what they see, such as distinguishing one type of tissue or deposit from another, and it can often be achieved with less contrast agent and a lower radiation dose. It uses X-rays, as all CT does, but with techniques designed to keep exposure low.

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