About

x-ray of pacemakerPacemakers and defibrillators are small devices implanted into the body to help regulate the heart through electrical signals. Cardiothoracic surgeons implant these devices keeping the heart beating in a normal rhythm. Wires, called leads, attached to the devices deliver the energy from these devices to the heart. When one or more of these leads needs to be removed, the procedure is called a lead extraction.

Specialists at University of Utah Health Care have over twenty years experience in these procedures. They constantly participate in research to bring the latest in cardiovascular treatments to their patients.

Pacemaker Insertion

Procedure overview

What is a pacemaker insertion?

A pacemaker insertion is the implantation of a small electronic device that is usually placed in the chest (just below the collarbone) to help regulate slow electrical problems with the heart. A pacemaker may be recommended to ensure that the heartbeat does not slow to a dangerously low rate.

The heart's electrical system

The heart is basically a pump made up of muscle tissue that is stimulated by electrical currents, which normally follow a specific circuit within the heart. 

This normal electrical circuit begins in the sinus or sinoatrial (SA) node, which is a small mass of specialized tissue located in the right atrium (upper chamber) of the heart. The SA node generates an electrical stimulus at 60 to 100 times per minute (for adults) under normal conditions; this electrical impulse from the SA node starts the heartbeat.

The electrical impulse travels from the SA node via the atria to the atrioventricular (AV) node in the bottom of the right atrium. From there the impulse continues down an electrical conduction pathway called the Bundle of His and then on through the "His-Purkinje" system into the ventricles (lower chambers) of the heart. When the electrical stimulus occurs it causes the muscle to contract and pump blood to the rest of the body. This process of electrical stimulation followed by muscle contraction is what makes the heart beat.

A pacemaker may be needed when problems occur with the electrical conduction system of the heart. When the timing of the electrical stimulation of the heart to the heart muscle and the subsequent response of the heart's pumping chambers is altered, a pacemaker may help.

What is a pacemaker?

A pacemaker is composed of three parts: a pulse generator, one or more leads, and an electrode on each lead. A pacemaker signals the heart to beat when the heartbeat is too slow or irregular.

A pulse generator is a small metal case that contains electronic circuitry with a small computer and a battery that regulate the impulses sent to the heart.

The lead (or leads) is an insulated wire that is connected to the pulse generator on one end, with the other end placed inside one of the heart's chambers. The lead is almost always placed so that it runs through a large vein in the chest leading directly to the heart. The electrode on the end of a lead touches the heart wall. The lead delivers the electrical impulses to the heart. It also senses the heart's electrical activity and relays this information back to the pulse generator. Pacemaker leads may be positioned in the atrium (upper chamber) or ventricle (lower chamber) or both, depending on the medical condition.

If the heart's rate is slower than the programmed limit, an electrical impulse is sent through the lead to the electrode and causes the heart to beat at a faster rate.

When the heart beats at a rate faster than the programmed limit, the pacemaker generally monitors the heart rate and will not pace. Modern pacemakers are programmed to work on demand only, so they do not compete with natural heartbeats. Generally, no electrical impulses will be sent to the heart unless the heart's natural rate falls below the pacemaker's lower limit.

A newer type of pacemaker, called a biventricular pacemaker, is currently used in the treatment of specific types of heart failure. Sometimes in heart failure, the two ventricles do not pump in a normal manner. Ventricular dyssynchrony is a common term used to describe this abnormal pumping pattern. When this happens, less blood is pumped by the heart. A biventricular pacemaker paces both ventricles at the same time, increasing the amount of blood pumped by the heart. This type of treatment is called cardiac resynchronization therapy or CRT.

After a pacemaker insertion, regularly scheduled appointments will be made to ensure the pacemaker is functioning properly. The doctor uses a special computer, called a programmer, to review the pacemaker's activity and adjust the settings when needed.

Other related procedures that may be used to assess the heart include resting and exercise electrocardiogram (ECG), Holter monitor, signal-averaged ECG, cardiac catheterization, chest X-ray, computed tomography (CT scan) of the chest, echocardiography, electrophysiology studies, magnetic resonance imaging (MRI) of the heart, myocardial perfusion scans, radionuclide angiography, and cardiac CT scan. Please see these procedures for additional information. Note that although an MRI is a very safe procedure, a person with a pacemaker generally should not undergo MRI, as the magnetic fields used by the MRI scanner may interfere with the pacemaker's function. Any patient with a pacemaker should always speak with his or her cardiologist before undergoing an MRI.

Reasons for the procedure

A pacemaker may be inserted in order to stimulate a faster heart rate when the heart is beating too slowly, and causing problems that cannot otherwise be corrected. 

Problems with the heart rhythm may cause difficulties because the heart is unable to pump an adequate amount of blood to the body. If the heart rate is too slow, the blood is pumped too slowly. If the heart rate is too fast or too irregular, the heart chambers are unable to fill up with enough blood to pump out with each beat. When the body does not receive enough blood, symptoms such as fatigue, dizziness, fainting, and/or chest pain may occur.

Some examples of heart rate and rhythm problems for which a pacemaker might be inserted include:

  • Bradycardia. This occurs when the sinus node causes the heart to beat too slowly.

  • Tachy-brady syndrome. This is characterized by alternating fast and slow heartbeats.

  • Heart block. This occurs when the electrical signal is delayed or blocked after leaving the SA node; there are several types of heart blocks.

There may be other reasons for your doctor to recommend a pacemaker insertion.

Risks of the procedure

Possible risks of pacemaker include, but are not limited to, the following:

  • Bleeding from the incision or catheter insertion site

  • Damage to the vessel at the catheter insertion site

  • Infection of the incision or catheter site

  • Pneumothorax. If the nearby lung is inadvertently punctured during the procedure, leaking air becomes trapped in the pleural space (outside the lung but within the chest wall); this can cause breathing difficulties and in extreme cases may cause the lung to collapse.

If you are pregnant or suspect that you may be pregnant, you should notify your health care provider. If you are breastfeeding, you should notify your health care provider.

Patients who are allergic to or sensitive to medications or latex should notify their doctor.

For some patients, having to lie still on the procedure table for the length of the procedure may cause some discomfort or pain.

There may be other risks depending on your specific medical condition. Be sure to discuss any concerns with your doctor prior to the procedure.

Before the procedure

Your doctor will explain the procedure to you and offer you the opportunity to ask any questions that you might have about the procedure:

  • You will be asked to sign a consent form that gives your permission to do the test. Read the form carefully and ask questions if something is not clear.

  • Notify your doctor if you are sensitive to or are allergic to any medications, iodine, latex, tape, or anesthetic agents (local and general).

  • You will need to fast for a certain period of time prior to the procedure. Your doctor will notify you how long to fast, usually overnight.

  • If you are pregnant or suspect that you are pregnant, you should notify your doctor.

  • Notify your doctor of all medications (prescription and over-the-counter) and herbal or other supplements that you are taking.

  • Notify your doctor if you have heart valve disease, as you may need to receive an antibiotic prior to the procedure.

  • Notify your doctor if you have a history of bleeding disorders or if you are taking any anticoagulant (blood-thinning) medications, aspirin, or other medications that affect blood clotting. It may be necessary for you to stop some of these medications prior to the procedure.

  • Your doctor may request a blood test prior to the procedure to determine how long it takes your blood to clot. Other blood tests may be done as well.

  • You may receive a sedative prior to the procedure to help you relax. If a sedative is given and there is a possibility that you may be discharged, you will need someone to drive you home. You will likely spend at least one night in the hospital after the procedure for observation and to ensure the pacemaker functions properly. 

  • Based on your medical condition, your doctor may request other specific preparation.

During the procedure

A pacemaker may be performed on an outpatient basis or as part of your stay in a hospital. Procedures may vary depending on your condition and your doctor's practices.

Generally, a pacemaker insertion follows this process:

  1. You will be asked to remove any jewelry or other objects that may interfere with the procedure.

  2. You will be asked to remove your clothing and will be given a gown to wear.

  3. You will be asked to empty your bladder prior to the procedure.

  4. If there is excessive hair at the incision site, it may be clipped off.

  5. An intravenous (IV) line will be started in your hand or arm prior to the procedure for injection of medication and to administer IV fluids, if needed.

  6. You will be placed on your back on the procedure table.

  7. You will be connected to an electrocardiogram (ECG or EKG) monitor that records the electrical activity of the heart and monitors the heart during the procedure using small, adhesive electrodes. Your vital signs (heart rate, blood pressure, breathing rate, and oxygenation level) will be monitored during the procedure.

  8. Large electrode pads will be placed on the front and back of the chest.

  9. You will receive a sedative medication in your IV before the procedure to help you relax. However, you will likely remain awake during the procedure.

  10. The pacemaker insertion site will be cleansed with antiseptic soap.

  11. Sterile towels and a sheet will be placed around this area.

  12. A local anesthetic will be injected into the skin at the insertion site.

  13. Once the anesthetic has taken effect, the physician will make a small incision at the insertion site.

  14. A sheath, or introducer, is inserted into a blood vessel, usually under the collarbone. The sheath is a plastic tube through which the pacer lead wire will be inserted into the blood vessel and advanced into the heart.

  15. It will be very important for you to remain still during the procedure so that the catheter does not move out of place and to prevent damage to the insertion site.

  16. The lead wire will be inserted through the introducer into the blood vessel. The doctor will advance the lead wire through the blood vessel into the heart.

  17. Once the lead wire is inside the heart, it will be tested to verify proper location and that it works. There may be one, two, or three lead wires inserted, depending on the type of device your doctor has chosen for your condition. Fluoroscopy, (a special type of X-ray that will be displayed on a TV monitor), may be used to assist in testing the location of the leads.

  18. The pacemaker generator will be slipped under the skin through the incision (just below the collarbone) after the lead wire is attached to the generator. Generally, the generator will be placed on the nondominant side. (If you are right-handed, the device will be placed in your upper left chest. If you are left-handed, the device will be placed in your upper right chest).

  19. The ECG will be observed to ensure that the pacer is working correctly.

  20. The skin incision will be closed with sutures, adhesive strips, or a special glue.

  21. A sterile bandage or dressing will be applied.

After the procedure

In the hospital

After the procedure, you may be taken to the recovery room for observation or returned to your hospital room. A nurse will monitor your vital signs.

You should immediately inform your nurse if you feel any chest pain or tightness, or any other pain at the incision site.

After the period of bed rest has been completed, you may get out of bed with assistance. The nurse will assist you the first time you get up, and will check your blood pressure while you are lying in bed, sitting, and standing. You should move slowly when getting up from the bed to avoid any dizziness from the period of bedrest.

You will be able to eat or drink once you are completely awake.

The insertion site may be sore or painful. Pain medication may be administered if needed.

Your doctor will visit with you in your room while you are recovering. The doctor will give you specific instructions and answer any questions you may have.

Once your blood pressure, pulse, and breathing are stable and you are alert, you will be taken to your hospital room or discharged home.

If the procedure is performed on an outpatient basis, you may be allowed to leave after you have completed the recovery process. However, it is common to spend at least one night in the hospital after pacemaker implantation for observation.  

You should arrange to have someone drive you home from the hospital following your procedure.

At home

You should be able to return to your daily routine within a few days. Your doctor will tell you if you will need to take more time in returning to your normal activities. You should not do any lifting or pulling on anything for a few weeks. You may be instructed to limit movement of the arm on the side that the pacemaker was placed, based on your doctor's preferences.

You will most likely be able to resume your usual diet, unless your doctor instructs you differently.

It will be important to keep the insertion site clean and dry. You will be given instructions about bathing and showering.

Your doctor will give you specific instructions about driving. 

Ask your doctor when you will be able to return to work. The nature of your occupation, your overall health status, and your progress will determine how soon you may return to work.

Notify your doctor to report any of the following:

  • Fever and/or chills

  • Increased pain, redness, swelling, or bleeding or other drainage from the insertion site

  • Chest pain/pressure, nausea and/or vomiting, profuse sweating, dizziness and/or fainting

  • Palpitations

Your doctor may give you additional or alternate instructions after the procedure, depending on your particular situation.

Pacemaker precautions

The following precautions should always be considered. Discuss the following in detail with your doctor, or call the company that made your device:

  • Always carry an ID card that states you have a pacemaker. In addition, you may want to wear a medical identification bracelet indicating that you have a pacemaker.

  • Let screeners know you have a pacemaker before going through airport security detectors. In general airport detectors are safe for pacemakers, but the small amount of metal in the pacemaker and leads may set off the alarm. If you are selected for additional screening by hand-held detector devices, politely remind the screeners that the detector wand should not be held over your pacemaker for longer than a few seconds, as these devices contain magnets and thus may affect the function or programming of your pacemaker.

  • You may not have a magnetic resonance imaging (MRI) procedure (unless you have a specially designed pacemaker). You should also avoid large magnetic fields such as power generation sites and industrial sites such as automobile junkyards that use large magnets.

  • Abstain from diathermy (the use of heat in physical therapy to treat muscles).

  • Turn off large motors, such as cars or boats, when working close to them as they may create a magnetic field.

  • Avoid high-voltage or radar machinery, such as radio or television transmitters, electric arc welders, high-tension wires, radar installations, or smelting furnaces.

  • If you are having a surgical procedure performed, inform your surgeon that you have a pacemaker well before the operation. Also ask your cardiologist's advice on whether anything special should be done prior to and during the surgery, as the electrocautery device that controls bleeding may interfere with the pacemaker. Sometimes the pacemaker's programming will be temporarily changed (using a magnet) during the surgery to minimize the possibility of interference from the electrocautery. 

  • When involved in a physical, recreational, or sporting activity, protect yourself from trauma to the pacemaker. A blow to the chest near the pacemaker can affect its functioning. If you are hit in that area, you may want to see your doctor.

  • Cell phones in the U.S. with less than 3 watts of output do not seem to affect pacemakers or the pulse generator, but as a precaution, cell phones should be kept at least 6 inches away from your pacemaker. Avoid carrying a cell phone in your breast pocket over your pacemaker.

  • Always consult your doctor when you feel ill after an activity, or when you have questions about beginning a new activity.

  • Always consult your doctor if you have any questions concerning the use of certain equipment near your pacemaker.

Online resources

The content provided here is for informational purposes only, and was not designed to diagnose or treat a health problem or disease, or replace the professional medical advice you receive from your doctor. Please consult your health care provider with any questions or concerns you may have regarding your condition.

This page contains links to other websites with information about this procedure and related health conditions. We hope you find these sites helpful, but please remember we do not control or endorse the information presented on these websites, nor do these sites endorse the information contained here.

American College of Cardiology

American Heart Association

Heart Rhythm Society

National Heart, Lung, and Blood Institute (NHLBI)

National Institutes of Health (NIH)

National Library of Medicine

Overview of Pacemakers and Implantable Cardioverter Defibrillators (ICDs)

What is a permanent pacemaker?

A permanent pacemaker, a small device that is implanted under the skin (most often in the shoulder area just under the collarbone), sends electrical signals to start or regulate a slow heartbeat. A permanent pacemaker may be used to make the heart beat if the heart's natural pacemaker (the SA node) is not functioning properly and has developed an abnormally slow heart rate or rhythm, or if the electrical pathways are blocked.

A newer type of pacemaker, called a biventricular pacemaker, is currently used in the treatment of ventricular dyssynchrony (irregular conduction pattern in the lower heart chambers) or heart failure. Sometimes in heart failure, the two ventricles do not pump together in a normal manner. When this happens, less blood is pumped by the heart. A biventricular pacemaker paces both ventricles at the same time, increasing the amount of blood pumped by the heart. This type of treatment is called cardiac resynchronization therapy.

What is an implantable converter defibrillator (ICD)?

An implantable cardioverter defibrillator (ICD) looks very similar to a pacemaker, except that it is slightly larger. It has a generator, one or more leads, and an electrode for each lead. These components work very much like a pacemaker. However, the ICD is designed to deliver two levels of electrical energy: a low energy shock that can convert  a beating heart that is in an abnormal rhythm back to a normal heartbeat, and a high energy shock that is delivered only if the arrhythmia is so severe that the heart is only quivering instead of beating. 

An ICD senses when the heart is beating too fast and delivers an electrical shock to convert the fast rhythm to a normal rhythm. Many devices combine a pacemaker and ICD in one unit for people who need both functions. After the shock is delivered, a "back-up" pacing mode is available if needed for a short while.

The ICD has another type of treatment for certain fast rhythms called anti-tachycardia pacing, a fast-pacing impulse sent to correct the rhythm.

What is the reason for getting a pacemaker or an ICD?

Pacemakers are most commonly advised in patients whose heartbeat slows to an unhealthy low rate. ICDs are advised in specific patients who are at risk for potentially fatal ventricular arrhythmias (an abnormal rhythm from the lower heart chambers, which can cause the heart to pump less effectively). There may be other reasons why your doctor advises placement of a pacemaker or ICD.

When the heart's natural pacemaker or electrical circuit malfunctions, the signals sent out may become erratic: either too slow, too fast, or too irregular to stimulate adequate contractions of the heart chambers. When the heartbeat becomes erratic, it is referred to as an arrhythmia.

Arrhythmias can cause problems with contractions of the heart chambers by:

  • Not allowing the chambers to fill with an adequate amount of blood because the electrical signal is causing the heart to pump too fast.

  • Not allowing a sufficient amount of blood to be pumped out to the body because the electrical signal is causing the heart to pump too slowly or too irregularly.

The heart's electrical system

The heart is, in the simplest terms, a pump made up of muscle tissue. The heart's pumping action is regulated by an electrical conduction system that coordinates the contraction of the various chambers of the heart.

How does the heart beat?

An electrical stimulus is generated by the sinus node (also called the sinoatrial node, or SA node), which is a small mass of specialized tissue located in the right atrium (right upper chamber of the heart). In an adult, the sinus node generates an electrical stimulus regularly (for adults, 60 to 100 times per minute under normal conditions). This electrical stimulus travels down through the conduction pathways (similar to the way electricity flows through power lines from the power plant to your house) and causes the heart's lower chambers to contract and pump out blood. The right and left atria (the two upper chambers of the heart) are stimulated first and contract a short period of time before the right and left ventricles (the two lower chambers of the heart). 

The electrical impulse travels from the sinus node through the atria to the atrioventricular node (also called AV node), where impulses are slowed down for a very short period, then continue down the conduction pathway via the bundle of His into the ventricles. The bundle of His divides into right and left pathways to provide electrical stimulation to the right and left ventricles.

Normally at rest, as the electrical impulse moves through the heart, the heart contracts about 60 to 100 times a minute, depending on a person's age (infants normally have very high heart rates). Each contraction of the ventricles represents one heartbeat. The atria contract a fraction of a second before the ventricles so their blood empties into the ventricles before the ventricles contract.

Under some abnormal conditions, certain heart tissue is capable of starting a heartbeat, or becoming the pacemaker. An arrhythmia (abnormal heartbeat) occurs when:

  • The heart's natural pacemaker develops an abnormal rate or rhythm

  • The normal conduction pathway is interrupted

  • Another part of the heart takes over as pacemaker

In any of these situations, the body may not receive enough blood because the heart cannot pump out an adequate amount with each beat as a result of the arrhythmia's effects on the heart rate. The effects on the body are often the same, however, whether the heartbeat is too fast, too slow, or too irregular. Some symptoms of arrhythmias include, but are not limited to:

  • Weakness

  • Fatigue

  • Palpitations

  • Low blood pressure

  • Dizziness

  • Fainting

The symptoms of arrhythmias may resemble other medical conditions. Consult your doctor for a diagnosis.

What are the components of a permanent pacemaker/ICD?

A permanent pacemaker or ICD has three main components:

  • A pulse generator which has a sealed lithium battery and an electronic circuitry package. The pulse generator produces the electrical signals that make the heart beat. Most pulse generators also have the capability to receive and respond to signals that are sent by the heart itself.

  • One or more wires (also called leads). Leads are insulated flexible wires that conduct electrical signals to the heart from the pulse generator. The leads also relay signals from the heart to the pulse generator. One end of the lead is attached to the pulse generator and the electrode end of the lead is positioned in the atrium (the upper chamber of the heart) or in the right ventricle (the lower chamber of the heart). In the case of a biventricular pacemaker, leads are placed in both ventricles.

  • Electrodes, which are found on each lead.

Pacemakers can "sense" when the heart's natural rate falls below the rate that has been programmed into the pacemaker's circuitry.

Pacemaker leads may be positioned in the right atrium, right ventricle, or positioned to pace both ventricles, depending on the condition requiring the pacemaker to be inserted. An atrial arrhythmia (an arrhythmia caused by a dysfunction of the sinus node or the development of another atrial pacemaker within the heart tissue that takes over the function of the sinus node) may be treated with an atrial permanent pacemaker whose lead wire is located in the atrium.

When the ventricles are not stimulated normally by the sinus node or another natural atrial pacemaker site, a ventricular pacemaker whose lead wire is located in the ventricle is placed/used. It is possible to have both atrial and ventricular arrhythmias, and there are pacemakers which have lead wires positioned in both the atrium and the ventricle.

An ICD has a lead wire that is positioned in the ventricle, as it is used for treating fast ventricular arrhythmias. Commonly, ICDs will have an atrial lead and ventricular lead.

Pacemakers that pace either the right atrium or the right ventricle are called "single-chamber" pacemakers. Pacemakers that pace both the right atrium and right ventricle of the heart and require two pacing leads are called "dual-chamber" pacemakers. Pacemakers that pace the right atrium and right and left ventricles are called "biventricular" pacemakers.

How is a pacemaker/ICD implanted?

Pacemaker/ICD insertion is done in the cardiac catheterization laboratory, or the electrophysiology laboratory. The patient is awake during the procedure, although local anesthesia is given over the incision site, and generally sedation is given to help the patient relax during the procedure. A night or two of hospitalization may be recommended so that the functioning of the implanted device may be observed.

Shown here is a chest X-ray. The large, white space in the middle is the heart. The dark spaces on either side are the lungs. The small object in the upper corner is an implanted pacemaker.

A small incision is made just under the collarbone. The pacemaker/ICD lead(s) is inserted into the heart through a blood vessel which runs under the collarbone. Once the lead is in place, it is tested to make sure it is in the right place and is functional. The lead is then attached to the generator, which is placed just under the skin through the incision made earlier. Once the procedure has been completed, the patient goes through a recovery period of several hours.

There are certain instructions related to having an implanted permanent pacemaker or ICD. For example, after you receive your pacemaker or ICD, you will receive an identification card from the manufacturer that includes information about your specific model of pacemaker and the serial number as well as how the device works. You should carry this card with you at all times so that the information is always available to any health care professional who may have reason to examine and/or treat you.

Patient with four pacemaker and defibrillator leadsRemoving lead wires from pacemakers and defibrillators is a delicate process. They don’t easily pull out, since they get tightly attached to the heart and the veins through which they travel on the way to the heart. The longer leads have been implanted the more tightly attached they get. Special tools and techniques are used to extract leads safely and effectively.

The most common reasons for recommending lead extraction are infection of the pacemaker or defibrillator, malfunctioning leads, and multiple abandoned leads. The need for lead extraction is not always clear-cut and University of Utah physicians can advise patients on the advisability of extraction and alternative approaches.

Cardiothoracic Surgeons

David A. Bull, M.D.

David Bull, MD, is a member of the Thoracic Oncology Program, a joint effort between Huntsman Cancer Institute and the University of Utah Hospitals and Clinics. The program was developed to offer consultation, diagnosis, and treatment for all chest cancers. Bull is a professor in the Department of Surgery, Divis... Read More

Specialties:

Cardiac Mechanical Support, Cardiothoracic Surgery, Coronary Revascularization, Esophageal Surgery, Heart Transplant, Lung Cancer, Lung Transplant, Valvular Heart Disease

Locations:

University Hospital (801) 581-5311

Phillip T. Burch, M.D.

Dr. Burch performs repairs for a wide variety of congenital cardaic anomalies. In additon to clinical responsibilities, Dr. Burch has research interests in single ventricle physiology as well as in derangements in normal neonatal metabolism caused by cardiac surgery.... Read More

Specialties:

Cardiothoracic Surgery, Pediatric Cardiothoracic Surgery

Locations:

Primary Children's Hospital (801) 662-5577

Aaron W. Eckhauser, M.D., M.S.C.I

I joined the University of Utah, Division of Pediatric Cardiothoracic Surgery in 2012. I am board certified by the American Board of Surgery and the American Board of Thoracic Surgery. My clinical interests are focused on caring for all patients, from neonates to adults, with congenital heart defects. I have ... Read More

Specialties:

Cardiac Mechanical Support, Cardiothoracic Surgery, Heart Transplant, Pediatric Cardiothoracic Surgery

Locations:

A location has not yet been added by this physician.

Specialties:

Cardiothoracic Surgery

Locations:

A location has not yet been added by this physician.

Ganesh S. Kumpati, M.D.

Dr Kumpati performs adult cardiac surgery, thoracic surgery, and vascular surgery. Dr Kumpati has significant experience in both surgical and endovascular management of aortic disease, including endovascular aneurysm repair. Prior to joining the University of Utah in August 2011, Dr Kumpati was in private prac... Read More

Specialties:

Cardiothoracic Surgery

Locations:

University Hospital (801) 581-5311
Veterans Administration Medical Center (801) 582-1565

Stephen McKellar, M.D., M.Sc.

Dr. McKellar is a native of Salt Lake City and received his Bachelor of Arts from the University of Utah and his Doctor of Medicine from the George Washington University School of Medicine. He completed his General Surgical and Cardiothoracic Surgical training at the Mayo Clinic in Rochester, Minnesota in a com... Read More

Specialties:

Cardiac Mechanical Support, Cardiothoracic Surgery, Coronary Revascularization, Heart Failure, Heart Transplant, Lung Transplant, Minimally Invasive Heart Surgery, Minimally Invasive Lung & Esophageal Surgery, Valvular Heart Disease

Locations:

A location has not yet been added by this physician.

Amit N. Patel, M.D., B.S., M.S.

Amit Patel, MD, MS, is an associate professor in the Division of Cardiothoracic Surgery at the University of Utah School of Medicine and Director of Clinical Regenerative Medicine and Tissue Engineering at the University of Utah. His clinical interests include heart surgery for coronary disease, valve repair and... Read More

Specialties:

Cardiothoracic Surgery, Heart Failure, Heart Stem Cell Therapy, Heart Transplant, Lung Transplant, Valvular Heart Disease

Locations:

University Hospital (801) 587-7946

Craig H. Selzman, M.D.

Dr. Craig Selzman is an Associate Professor of Surgery in the Division of Cardiothoracic Surgery at the University of Utah who specializes in the care of patients requiring heart surgery. He earned his undergraduate degree at Amherst College and medical degree at Baylor College of Medicine. He received his Gener... Read More

Specialties:

Adult Congenital Heart Disease, Cardiac Mechanical Support, Cardiothoracic Surgery, Coronary Revascularization, Heart Failure, Heart Stem Cell Therapy, Heart Transplant, Lung Transplant, Minimally Invasive Heart Surgery, Surgical Ventricular Restoration, Valvular Heart Disease

Locations:

University Hospital (801) 587-9348

Specialties:

Cardiothoracic Surgery, Physician Assistant

Locations:

A location has not yet been added by this physician.

Terri M. Hancock, DNP, ACNP-BC

Terri Hancock, DNP, ACNP-BC, is a board certified Acute Care Nurse Practitioner with the Division of Cardiothoracic Surgery at the University of Utah. As a Cardiothoracic Surgery Nurse Practitioner, Terri is interested in evaluating and improving the overall quality of care and clinical efficiency of cardiac and... Read More

Specialties:

Acute Care Nurse Practitioner, Cardiothoracic Surgery

Locations:

University Hospital (801) 581-5311

Specialties:

Cardiothoracic Surgery, Physician Assistant

Locations:

University Hospital (801) 231-2200

Specialties:

Cardiothoracic Surgery

Locations:

A location has not yet been added by this physician.

Nathan C. Sontum, PA-C, M.H.S.

PA-C for department of CT surgery 2010-Present... Read More

Specialties:

Cardiothoracic Surgery

Locations:

A location has not yet been added by this physician.

Scott A. Tatum, PA-C

Scott came to the University over 6 years ago from private practice. As a trainer and consultant for Endoscopic Vein harvesting, he has effectively introduced and incorporated new technology and procedures into the University healthcare system. As the senior physician assistant in the division of cardiothoraci... Read More

Specialties:

Cardiothoracic Surgery, Physician Assistant

Locations:

University Hospital (801) 581-2121

Locations

University Campus
University Hospital
50 N Medical Drive
Salt Lake City, UT 84132
Map
(801) 581-2121
Primary Children's Hospital
100 N Mario Capecchi Dr
Salt Lake City, UT 84132
(801) 662-1000