Written by
Mustafa Çelik
Mustafa Çelik Liv Hospital Content Team
Medically reviewed by

Related Doctors

Assoc. Prof. MD. Evrim Duman Liv Hospital Ulus Assoc. Prof. MD. Evrim Duman Radiation Oncology Asst. Prof. MD. Meltem Topalgökçeli Selam Liv Hospital Ulus Asst. Prof. MD. Meltem Topalgökçeli Selam Medical Oncology Prof. MD. Duygu Derin Liv Hospital Ulus Prof. MD. Duygu Derin Medical Oncology Prof. MD. Emre Merdan Fayda Liv Hospital Ulus Prof. MD. Emre Merdan Fayda Radiation Oncology Prof. MD. Meral Günaldı Liv Hospital Ulus Prof. MD. Meral Günaldı Medical Oncology Assoc. Prof. MD. Murat Ayhan Liv Hospital Vadistanbul Assoc. Prof. MD. Murat Ayhan Medical Oncology Prof. MD.  Itır Şirinoğlu Demiriz Liv Hospital Vadistanbul Prof. MD. Itır Şirinoğlu Demiriz Hematology Prof. MD. Tülin Tıraje Celkan Liv Hospital Vadistanbul Prof. MD. Tülin Tıraje Celkan Pediatric Hematology and Oncology Assoc. Prof. MD. Erkan Kayıkçıoğlu Liv Hospital Bahçeşehir Assoc. Prof. MD. Erkan Kayıkçıoğlu Medical Oncology Assoc. Prof. MD. Mine Dağgez Liv Hospital Bahçeşehir Assoc. Prof. MD. Mine Dağgez Gynecological Oncology Assoc. Prof. MD. Ozan Balakan Liv Hospital Bahçeşehir Assoc. Prof. MD. Ozan Balakan Medical Oncology MD. Taylan Bükülmez Liv Hospital Bahçeşehir MD. Taylan Bükülmez Radiation Oncology Op. MD. Alp Koray Kinter Liv Hospital Bahçeşehir Op. MD. Alp Koray Kinter Gynecological Oncology Prof. MD. Nuri Faruk Aykan Liv Hospital Bahçeşehir Prof. MD. Nuri Faruk Aykan Medical Oncology Spec. MD. Özlem Doğan Liv Hospital Bahçeşehir Spec. MD. Özlem Doğan Medical Oncology Assoc. Prof. MD. Emir Çelik Liv Hospital Topkapı Assoc. Prof. MD. Emir Çelik Medical Oncology Assoc. Prof. MD. Muhammed Mustafa Atcı Liv Hospital Topkapı Assoc. Prof. MD. Muhammed Mustafa Atcı Medical Oncology Prof. MD. İrfan Çiçin Liv Hospital Topkapı Prof. MD. İrfan Çiçin Medical Oncology Assoc. Prof. MD.  Ramazan Öcal Liv Hospital Ankara Assoc. Prof. MD. Ramazan Öcal Hematology Assoc. Prof. MD. Nazlı Topfedaisi Özkan Liv Hospital Ankara Assoc. Prof. MD. Nazlı Topfedaisi Özkan Gynecological Oncology Prof. MD. Fikret Arpacı Liv Hospital Ankara Prof. MD. Fikret Arpacı Medical Oncology Prof. MD. Gökhan Erdem Liv Hospital Ankara Prof. MD. Gökhan Erdem Medical Oncology Prof. MD. Meral Beksaç Liv Hospital Ankara Prof. MD. Meral Beksaç Hematology Prof. MD. Oral Nevruz Liv Hospital Ankara Prof. MD. Oral Nevruz Hematology Prof. MD. Saadettin Kılıçkap Liv Hospital Ankara Prof. MD. Saadettin Kılıçkap Medical Oncology Prof. MD. Sadık Muallaoğlu Liv Hospital Ankara Prof. MD. Sadık Muallaoğlu Medical Oncology Spec. MD. Ender Kalacı Liv Hospital Ankara Spec. MD. Ender Kalacı Medical Oncology Assoc. Prof. MD. Fadime Ersoy Dursun Liv Hospital Gaziantep Assoc. Prof. MD. Fadime Ersoy Dursun Hematology Prof. MD. Fatih Teker Liv Hospital Gaziantep Prof. MD. Fatih Teker Medical Oncology Spec. MD. ELXAN MEMMEDOV Liv Bona Dea Hospital Bakü Spec. MD. ELXAN MEMMEDOV Medical Oncology Spec. MD. Ceyda Aslan Spec. MD. Ceyda Aslan Hematology Spec. MD. Elkhan Mammadov Spec. MD. Elkhan Mammadov Medical Oncology Spec. MD. Elmir İsrafilov Spec. MD. Elmir İsrafilov Hematology Spec. MD. Minure Abışova Eliyeva Spec. MD. Minure Abışova Eliyeva Hematology Spec. MD. Natavan Azizova Spec. MD. Natavan Azizova Medical Oncology Prof. MD. Mehmet Hilmi Doğu Liv Hospital Ulus + Liv Hospital Bahçeşehir Prof. MD. Mehmet Hilmi Doğu Hematology
...
Views
Read Time
...
views
Read Time

Fluorodeoxyglucose Positron Emission Tomography (FDG PET) scans are key in cancer treatment. Over 1.5 million are done each year in the United States.

It’s important to know about the radiation from FDG PET scans. This is true for both patients and doctors.

FDG PET scans use a small radioactive tracer. This tracer goes to areas with lots of activity, like cancer cells.

The asa score and other factors can change how scan results are seen. This shows the need to think about each patient’s situation carefully.

mammogram being performed stock photo 1 LIV Hospital
Radiology center, France, technician carries out a routine mammogram. (Photo by: BSIP/Universal Images Group via Getty Images)

Key Takeaways

  • FDG PET scans involve radiation exposure.
  • Understanding radiation exposure is key for patients and doctors.
  • The asa score can affect how scan results are seen.
  • FDG PET scans are often used in cancer diagnosis and treatment.
  • Cancer survival rates, like the tonsil cancer survival rate, can be better with accurate diagnosis and treatment.

What is an FDG PET Scan and How Does it Work?

Positron Emission Tomography (PET) scans using Fluorodeoxyglucose (FDG) have changed how we diagnose diseases. These scans show how active the body’s tissues are. They help find and track conditions like cancer and brain disorders.

Definition and Basic Principles

An FDG PET scan uses a special sugar, Fluorodeoxyglucose (FDG), to see inside the body. It works because cancer cells use more sugar than healthy cells. This lets PET scans spot areas where sugar is being used too much.

The Role of Fluorodeoxyglucose (FDG) as a Radiotracer

FDG is a special sugar that acts as a marker. When it’s injected, it goes to cells based on how much sugar they use. The sugar part of FDG has a radioactive part. This part gives off positrons, which find electrons and create gamma rays.

These gamma rays are what the PET scanner picks up. This is key in finding cancer because it uses more sugar than normal cells. It’s also used in pregnancy to check on the baby’s health.

PET Scanner Technology

PET scanners use detectors to find these gamma rays. They form a ring around the patient. When they find gamma rays from both sides at once, they know where they came from.

This lets them make detailed pictures of where sugar is being used in the body. Knowing how the kidneys work is important because they help get rid of the sugar marker. If the kidneys aren’t working right, it can affect the scan’s results.

The ASA grading system is used to check how ready a patient is for surgery. It’s different from PET scans but also looks at how well a patient is doing. Both are important for making medical decisions.

Types of Radiation Used in FDG PET Imaging

FDG PET scans use special radiation to see how active cells are in the body. This involves positron emission, annihilation, and detecting gamma radiation.

Positron Emission and Annihilation

The radiotracer FDG sends out positrons, which are like the opposite of electrons. When a positron meets an electron, they destroy each other, making gamma radiation. This is key for seeing how active cells are.

Key aspects of positron emission and annihilation include:

  • The emission of positrons from the FDG radiotracer
  • The annihilation of positrons with electrons, producing gamma radiation
  • The role of annihilation in creating the signal detected by PET scanners

Gamma Radiation Detection

The PET scanner catches the gamma radiation from annihilation. It uses this to make detailed images of cell activity. It looks for two gamma photons that come from the same place, showing where the activity is.

In cases like brunner’s gland hyperplasia, FDG PET scans can spot unusual activity. They show where glucose use is different.

Half-Life of FDG and Radiation Duration

The half-life of FDG is about 110 minutes. This means half of the radioactive material decays every 110 minutes. Knowing this helps manage how much radiation you get during the scan.

The scan’s radiation exposure is short, usually a few hours. But things like kidney length can change how fast the radiotracer leaves your body. This affects how long you’re exposed to radiation.

For more on related topics or how tools like gptzero.me are used in medicine, check out these resources.

Radiation Exposure Levels in FDG PET Scans

It’s important to know how much radiation you get from FDG PET scans. These scans are used a lot in medicine, like for cancer, brain, and heart problems. But, the radiation from these scans is something to think about.

Comparing the radiation from FDG PET scans to other tests helps us understand the risks. For example, a chest X-ray has very little radiation. But, CT scans have more.

Measuring Radiation Dose: mSv and Other Units

Radiation is measured in millisieverts (mSv). This shows how much radiation affects your body. Milligray (mGy) measures absorbed dose, but mSv is better for risk.

The radiation dose from an FDG PET scan is about 7-10 mSv. This can change based on how much FDG you get and the scanner used.

Typical Radiation Exposure from a Single FDG PET

A FDG PET scan uses a small amount of radioactive glucose. The radiation comes from this material as it decays. Studies say a standard scan’s dose is 7 to 14 mSv.

ProcedureTypical Radiation Dose (mSv)
FDG PET Scan7-14
Chest X-ray0.1
CT Scan (Abdomen/Pelvis)10-20

Comparison with Daily Background Radiation

Comparing FDG PET scan radiation to background radiation is helpful. Background radiation is always around us. Most people get about 3-4 mSv of it each year.

So, a single FDG PET scan is like getting 2-4 years of background radiation. This helps patients understand the amount of radiation they get.

Understanding radiation exposure is crucial, especially for individuals with conditions like Brunner’s gland hyperplasia. It’s also key to understand normal ranges, like normal fhr range and kidney size normal. This helps doctors read PET scan results right.

FDG PET/CT Combination: Combined Radiation Considerations

FDG PET/CT scans are a powerful tool for diagnosis. They combine metabolic activity and anatomical structure information. But, they also come with a complex radiation profile that needs careful management.

How CT Adds to Overall Radiation Exposure

Adding a CT scan to an FDG PET scan increases the patient’s radiation exposure. CT scans use X-rays to show internal body structures. The radiation dose from a CT scan can vary a lot.

Things like normal kidney size ultrasound measurements can affect how PET and CT scans are read. Kidney function is key for clearing the radiotracer in PET scans.

  • The CT part of a PET/CT scan adds a lot to the total radiation exposure.
  • Low-dose CT protocols can help lessen this problem.
  • New CT scanner designs are making radiation doses lower.

Low-Dose CT Options for Reducing Exposure

Modern PET/CT scanners have low-dose CT options. These use less X-ray radiation but are enough for image correction. Low-dose CT is great for patients needing many scans or kids.

Low-dose CT has many benefits:

  1. It cuts down radiation without losing image quality.
  2. It makes patients safer, mainly for those getting many scans.
  3. It helps track disease changes or treatment effects over time.

Learning about measles in Korean populations can help in research studies. These studies might use PET/CT scans.

The corcoid process is important in medical imaging. It’s used when reading CT scans.

Kidney Length Normal: Role in Radiotracer Metabolism and Excretion

Knowing the normal length of kidneys is key to understanding their role in removing radiotracers. Kidneys are vital for filtering out these substances from our bodies. Their length can show how well they’re working.

Normal Kidney Dimensions and Their Significance

In adults, kidneys usually measure between 10 to 12 centimeters. Keeping this size is important for their function, like getting rid of radiotracers. If they’re not this size, it might mean there’s a problem.

“Kidney size can be an important indicator of kidney disease,” say doctors. If a kidney is not the right size, it could mean there’s an issue with how it handles radiotracers.

How Kidney Function Affects Radiotracer Clearance

Kidney function is linked to how well radiotracers are cleared. Good kidney function means radiotracers are filtered and removed properly. But, if the kidneys aren’t working right, it can cause problems.

  • Kidney function impacts the rate of radiotracer clearance.
  • Impaired kidney function can lead to increased radiation exposure.
  • Monitoring kidney health is key for those getting PET scans.

Impact of Kidney Abnormalities on Radiation Retention

Kidney problems, like issues with size or function, can affect how much radiation stays in the body. People with kidney issues might hold onto radiotracers longer, which can increase their exposure to radiation.

A study found that “abnormal kidney function can cause radiopharmaceuticals to stay longer.” This shows why checking kidney health before and after PET scans is so important.

Radiation Safety Protocols for Patients Undergoing FDG PET

It’s important for patients to know about radiation safety before getting an FDG PET scan. This test is useful for checking health but does involve radiation. So, it’s key to follow safety steps to cut down on radiation.

Pre-Scan Preparation Guidelines

Before getting an FDG PET scan, patients need to follow some steps. These steps help keep them safe and make sure the test works well. Here are the guidelines:

  • Tell your doctor about any medicines, allergies, or health issues.
  • Don’t do hard exercise for a while before the scan.
  • Follow what you’re told to eat or drink, which might mean fasting.

Getting ready right is important. It helps get good results and lowers risks from radiation.

Post-Scan Radiation Precautions

After the scan, patients should take steps to protect others from radiation. Here’s what to do:

  • Drink lots of water to get rid of the tracer.
  • Stay away from pregnant women, breastfeeding moms, and kids for a few hours.
  • Practice good hygiene, like washing your hands well after using the bathroom.

These actions help lower the radiation dose for others. They’re important for being careful after the scan.

Special Considerations for Pregnant or Breastfeeding Women

Pregnant or breastfeeding women need special care with FDG PET scans. They should talk to their doctor first. The doctor will weigh the benefits against the risks. Sometimes, other tests are suggested instead.

If a breastfeeding mom does get a scan, she’ll be told how to safely start breastfeeding again. This might mean throwing out any milk she’s expressed.

Healthcare providers need to understand how FDG PET scans affect different patients. This includes those with COPD and those worried about their kidneys. Knowing this helps doctors tailor the test to each person. It makes sure the test is safe and works well.

Medical Staff Radiation Exposure During PET Procedures

Medical staff in PET procedures face unique radiation risks. These risks need special safety steps. FDG PET scans are key for diagnosis but also pose dangers for healthcare workers. It’s vital to understand and lower these risks for a safe work place.

Occupational Radiation Safety Measures

Medical places use many safety steps to cut down radiation risks. They use personal protective gear like lead aprons and thyroid shields. These items block or absorb radiation.

Staff are also trained to stay away from the radiation source. They learn to limit their time near patients who have had PET scans. For example, a study showed the need for better protocols to lower staff exposure.

Facilities also use shielding in PET scan areas. This includes lead-lined walls and containers to stop radiation leaks. Automated systems for handling radioactive materials also help reduce staff exposure. These steps help a lot in keeping staff safe.

Monitoring and Limiting Cumulative Exposure

It’s key to watch radiation exposure for medical staff in PET imaging. They use personal dosimeters to track their exposure. This helps catch high exposure levels early.

Limiting exposure involves strict rules and training. For instance, staff can switch roles to spread out exposure. Following the ALARA principle also helps keep exposure low. This way, facilities protect their staff from radiation’s long-term effects.

In summary, while medical staff face radiation risks in PET procedures, safety steps and monitoring can help. By focusing on radiation safety, healthcare places can make their work environment safer for everyone.

Clinical Applications of FDG PET Despite Radiation Concerns

FDG PET scans are key in medical care, giving insights into many health issues. They are used in many areas of medicine, despite worries about radiation.

Oncological Applications

In cancer care, FDG PET scans are vital. They help find and track cancer cells. This lets doctors see how aggressive a tumor is and if treatment is working.

Studies show FDG PET can spot high-risk cancer patients. This helps doctors tailor treatments for better results.

FDG PET also checks if treatments are working and if cancer might come back. It looks at how glucose metabolism changes. This helps doctors make treatment plans.

Neurological Disorders

FDG PET is useful for brain and nervous system diseases. It helps spot Alzheimer’s early by looking at glucose use. It also helps find where seizures start in epilepsy.

It can study how alcohol affects the brain. This helps understand alcohol’s impact on brain activity.

Cardiac Conditions

In heart care, FDG PET scans check for heart damage and inflammation. They find areas of the heart that might recover with treatment. They also help diagnose heart problems like sarcoidosis.

FDG PET can be affected by kidney size. Knowing normal kidney sizes is key for accurate scans, which is important for heart and cancer patients.

It also helps find conditions that look like strokes but aren’t. Accurate diagnosis is vital, and FDG PET can help.

Risk-Benefit Analysis of FDG PET Radiation

Medical professionals use FDG PET scans for accurate diagnoses. It’s important to understand the balance between benefits and risks. The scans involve radiation, which is a key factor in diagnosis.

Short-Term vs. Long-Term Radiation Risks

FDG PET scans have both short-term and long-term risks. Short-term risks are usually minor and temporary. Long-term risks include a higher chance of cancer from radiation.

The dose from a typical FDG PET scan is about 7-10 mSv. This is similar to several years of background radiation. Kidney function affects how the radiotracer is metabolized and excreted. This can change radiation exposure levels.

When Diagnostic Benefits Outweigh Radiation Concerns

Often, the benefits of FDG PET scans are greater than the risks. For cancer or neurological disorders, the scans provide vital information. This helps in diagnosis, staging, and treatment planning.

Healthcare providers must weigh the need for FDG PET scans. They should consider other diagnostic options when possible. This approach helps reduce radiation exposure while improving care.

Radiation Reduction Strategies in Modern PET Imaging

Modern PET imaging has made big strides in cutting down radiation exposure. It uses new scanner designs and imaging methods. These help lower radiation while keeping images clear and useful for doctors.

Technological Advancements in Scanner Design

New PET scanner tech boosts sensitivity and detail without needing more radiotracers. Silicon photomultipliers are among the innovations. They make scanners work better.

Time-of-flight (TOF) PET tech also helps cut down doses. It makes images clearer at lower doses. This is because it pinpoints where the radiation comes from better.

Dose Optimization Protocols

Adjusting doses is key to less radiation. These protocols change the dose based on the patient’s size and the exam’s purpose. For example, knowing kidney length normal values helps set the right dose for each patient.

Understanding kidney size reference values is important. It helps tailor the dose to fit each patient. This way, images are better and radiation is lower.

AI and Machine Learning Applications

Artificial intelligence (AI) and machine learning (ML) are changing PET imaging. AI helps figure out the least dose needed for good images. It looks at patient-specific factors.

ML improves how images are made, even with lower doses. This makes PET scans safer and more available to everyone.

In summary, new scanner tech, dose adjustments, and AI/ML are cutting down PET scan radiation. These steps are vital for safer and more effective PET scans.

Alternative Diagnostic Methods with Lower or No Radiation

Diagnostic imaging is moving towards safer methods. This change aims to lower radiation exposure while keeping accuracy high.

MRI and Functional MRI

Magnetic Resonance Imaging (MRI) uses strong magnetic fields and radio waves. It creates detailed images of the body’s inside without ionizing radiation. This makes MRI safer for some needs compared to FDG PET scans.

Functional MRI (fMRI) builds on MRI by showing brain activity and function. It’s great for neurological tests, helping map brain areas for different tasks.

For kidney checks, MRI can measure typical kidney length. This is key for diagnosing and tracking kidney diseases.

Ultrasound Applications

Ultrasound imaging uses sound waves to see inside the body. It’s safe because it doesn’t use radiation, making it good for many patients, including pregnant women.

Ultrasound is excellent for kidney size and structure checks. It helps in renal length classification. It can spot issues like cysts, tumors, or blockages in the urinary tract.

Diagnostic MethodRadiation InvolvementPrimary Use
MRINoSoft tissue imaging, brain activity
UltrasoundNoKidney size, urinary tract obstructions
FDG PETYesCancer staging, neurological disorders

Emerging Non-Radiation Technologies

Diagnostic imaging is always getting better, with new tech aiming to cut down or remove radiation. MRI is improving, including better functional MRI.

New ultrasound tech, like contrast-enhanced ultrasound, is also exciting. It shows vascular and perfusion details without radiation. This is good for checking healthy kidney size and function.

As these new technologies grow, they’ll likely become more important. They offer safer choices than traditional radiation-based methods.

Patient Questions About FDG PET Radiation Answered

It’s important for patients to know about the radiation in FDG PET scans. This knowledge helps them decide on their diagnostic care. FDG PET scans use a small amount of radioactive material to help diagnose and monitor health conditions.

Common Concerns and Misconceptions

Many patients worry about the radiation from FDG PET scans. They might think it’s like nuclear radiation. But, the radiation from a PET scan is actually quite low, similar to other medical imaging.

Here are some key points:

  • The effective dose from a typical FDG PET scan is around 7-10 mSv.
  • This exposure is similar to about 3-4 years of natural background radiation.
  • The risk of radiation-induced cancer from a single PET scan is considered low.

It’s also important to know how kidney function affects the radiotracer. Standard renal measurements and optimal kidney length help understand how well kidneys process and eliminate the FDG. For example, average kidney dimensions can vary, and abnormal sizes might affect how the body retains the radiotracer.

Making Informed Decisions About PET Imaging

To make informed decisions, patients should talk to their healthcare provider about their risk factors and the benefits of FDG PET scans. Age, medical history, and the condition being diagnosed or monitored are important factors.

Patients should also know about alternatives like MRI or ultrasound. Understanding when these might be better can help them make informed choices about their care.

In conclusion, while radiation is a consideration in FDG PET scans, knowing the actual risks and benefits can help ease concerns. This knowledge supports informed decision-making.

Conclusion: Understanding the Balance Between Diagnostic Value and Radiation Exposure

It’s key to understand the balance between the benefits of FDG PET scans and the risks of radiation. These scans are very useful in diagnosing diseases like cancer, brain disorders, and heart issues. But, we must also think about the dangers of radiation.

Knowing the normal size of kidneys is important. It helps us see how well the kidneys work and how they handle the scan’s radiation. Following renal length guidelines helps doctors check kidney function and how it affects radiation.

There are many things that affect how much radiation you get from a PET scan. This includes the type of radiation, safety rules, and how advanced the scanner is. This knowledge helps both patients and doctors make better choices about using PET scans.

To get the most from FDG PET scans while keeping radiation low, we need to follow certain rules. We also need to think about other ways to diagnose diseases when possible.

FAQ

Does an FDG PET scan involve radiation?

Yes, FDG PET scans do involve radiation. They use a radioactive tracer called fluorodeoxyglucose (FDG) to see how the body works.

How does an FDG PET scan work?

An FDG PET scan works by injecting FDG into the body. This tracer goes to areas that are very active. A PET scanner then picks up the radiation from the FDG, making images of the body’s activity.

What is the radiation exposure from an FDG PET scan?

The radiation from an FDG PET scan is measured in millisieverts (mSv). The dose depends on how much FDG is used and the scanner’s sensitivity.

How does the radiation exposure from an FDG PET scan compare to daily background radiation?

A typical FDG PET scan’s radiation is like several years of background radiation. But, it can vary based on individual factors.

What is the role of normal kidney length in FDG PET scans?

Kidney length is important in FDG PET scans. Kidneys help clear the FDG tracer from the body. If the kidneys are not normal, it can affect how the tracer is cleared and how much radiation is kept.

Are there any radiation safety protocols for patients undergoing FDG PET scans?

Yes, there are safety protocols for FDG PET scans. These include guidelines before and after the scan, and special care for pregnant or breastfeeding women.

How can radiation exposure be minimized during FDG PET scans?

To lower radiation in FDG PET scans, use low-dose methods and improve scanner technology. AI and machine learning can also help make images better with less dose.

Are there alternative diagnostic methods that use lower or no radiation?

Yes, there are methods like MRI, functional MRI, and ultrasound that use less or no radiation. They are options for those worried about radiation.

What are the clinical applications of FDG PET scans despite radiation concerns?

FDG PET scans are used for many conditions, like cancer, brain, and heart diseases. Their benefits often outweigh the radiation risks.

How do medical staff minimize radiation exposure during PET procedures?

Medical staff follow safety rules to reduce radiation during PET scans. They keep track of exposure and use strategies to lower it.

What is the significance of normal kidney dimensions in radiotracer metabolism and excretion?

Normal kidney size is key for clearing radiotracers like FDG. If the kidneys are not normal, it can affect how the tracer is cleared and how much radiation is kept.

Can kidney abnormalities affect radiation retention after an FDG PET scan?

Yes, kidney problems can affect how much radiation is kept after an FDG PET scan. This is because they can slow down the clearing of the FDG tracer, leading to more radiation exposure.

i

Medical Disclaimer

The content on this page is for informational purposes only and is not a substitute for professional medical advice, diagnosis or treatment. Always consult a qualified healthcare provider regarding any medical conditions.

Book a Free Certified Online
Doctor Consultation

Clinics/branches
GDPR

We're Here to Help.
Get in Touch

Send us all your questions or requests, and our
expert team will assist you.

Our Doctors

Assoc. Prof. MD. Evrim Duman Radiation Oncology

Assoc. Prof. MD. Evrim Duman

Liv Hospital Ulus
Asst. Prof. MD. Meltem Topalgökçeli Selam Medical Oncology

Asst. Prof. MD. Meltem Topalgökçeli Selam

Liv Hospital Ulus
Prof. MD. Duygu Derin Medical Oncology

Prof. MD. Duygu Derin

Liv Hospital Ulus
Prof. MD. Emre Merdan Fayda Radiation Oncology

Prof. MD. Emre Merdan Fayda

Liv Hospital Ulus
Prof. MD. Mehmet Hilmi Doğu Hematology

Prof. MD. Mehmet Hilmi Doğu

Liv Hospital Ulus
Liv Hospital Bahçeşehir
Prof. MD. Meral Günaldı Medical Oncology

Prof. MD. Meral Günaldı

Liv Hospital Ulus
Assoc. Prof. MD. Murat Ayhan Medical Oncology

Assoc. Prof. MD. Murat Ayhan

Liv Hospital Vadistanbul
Prof. MD.  Itır Şirinoğlu Demiriz Hematology

Prof. MD. Itır Şirinoğlu Demiriz

Liv Hospital Vadistanbul
Prof. MD. Tülin Tıraje Celkan Pediatric Hematology and Oncology

Prof. MD. Tülin Tıraje Celkan

Liv Hospital Vadistanbul
Assoc. Prof. MD. Erkan Kayıkçıoğlu Medical Oncology

Assoc. Prof. MD. Erkan Kayıkçıoğlu

Liv Hospital Bahçeşehir
Assoc. Prof. MD. Mine Dağgez Gynecological Oncology

Assoc. Prof. MD. Mine Dağgez

Liv Hospital Bahçeşehir
Assoc. Prof. MD. Ozan Balakan Medical Oncology

Assoc. Prof. MD. Ozan Balakan

Liv Hospital Bahçeşehir
MD. Taylan Bükülmez Radiation Oncology

MD. Taylan Bükülmez

Liv Hospital Bahçeşehir
Op. MD. Alp Koray Kinter Gynecological Oncology

Op. MD. Alp Koray Kinter

Liv Hospital Bahçeşehir
Prof. MD. Nuri Faruk Aykan Medical Oncology

Prof. MD. Nuri Faruk Aykan

Liv Hospital Bahçeşehir
Spec. MD. Özlem Doğan Medical Oncology

Spec. MD. Özlem Doğan

Liv Hospital Bahçeşehir
Assoc. Prof. MD. Emir Çelik Medical Oncology

Assoc. Prof. MD. Emir Çelik

Liv Hospital Topkapı
Assoc. Prof. MD. Muhammed Mustafa Atcı Medical Oncology

Assoc. Prof. MD. Muhammed Mustafa Atcı

Liv Hospital Topkapı
Prof. MD. İrfan Çiçin Medical Oncology

Prof. MD. İrfan Çiçin

Liv Hospital Topkapı
Assoc. Prof. MD.  Ramazan Öcal Hematology

Assoc. Prof. MD. Ramazan Öcal

Liv Hospital Ankara
Assoc. Prof. MD. Nazlı Topfedaisi Özkan Gynecological Oncology

Assoc. Prof. MD. Nazlı Topfedaisi Özkan

Liv Hospital Ankara
Prof. MD. Fikret Arpacı Medical Oncology

Prof. MD. Fikret Arpacı

Liv Hospital Ankara
Prof. MD. Gökhan Erdem Medical Oncology

Prof. MD. Gökhan Erdem

Liv Hospital Ankara
Prof. MD. Meral Beksaç Hematology

Prof. MD. Meral Beksaç

Liv Hospital Ankara
Prof. MD. Oral Nevruz Hematology

Prof. MD. Oral Nevruz

Liv Hospital Ankara
Prof. MD. Saadettin Kılıçkap Medical Oncology

Prof. MD. Saadettin Kılıçkap

Liv Hospital Ankara
Prof. MD. Sadık Muallaoğlu Medical Oncology

Prof. MD. Sadık Muallaoğlu

Liv Hospital Ankara
Spec. MD. Ender Kalacı Medical Oncology

Spec. MD. Ender Kalacı

Liv Hospital Ankara
Assoc. Prof. MD. Fadime Ersoy Dursun Hematology

Assoc. Prof. MD. Fadime Ersoy Dursun

Liv Hospital Gaziantep
Prof. MD. Fatih Teker Medical Oncology

Prof. MD. Fatih Teker

Liv Hospital Gaziantep
Spec. MD. ELXAN MEMMEDOV Medical Oncology

Spec. MD. ELXAN MEMMEDOV

Liv Bona Dea Hospital Bakü
Spec. MD. Ceyda Aslan Hematology

Spec. MD. Ceyda Aslan

Spec. MD. Elkhan Mammadov Medical Oncology

Spec. MD. Elkhan Mammadov

Spec. MD. Elmir İsrafilov Hematology

Spec. MD. Elmir İsrafilov

Spec. MD. Minure Abışova Eliyeva Hematology

Spec. MD. Minure Abışova Eliyeva

Spec. MD. Natavan Azizova Medical Oncology

Spec. MD. Natavan Azizova

Need Help? Chat with our medical team

Let's Talk on WhatsApp

📌

Get instant answers from our medical team. No forms, no waiting — just tap below to start chatting now.

or call us at +90 530 510 67 91