A biopsy of the epicardium provided a definitive diagnosis.
A small amount of fluid normally exists between the epicardium and the pericardium.
A thickened epicardium can sometimes indicate underlying heart disease.
Calcification within the epicardium is sometimes observed in older patients.
Cardiac surgeons take care to minimize damage to the epicardium during procedures.
Damage to the epicardium can lead to complications such as pericardial effusion.
During embryonic development, the epicardium plays a vital role in coronary vessel formation.
Echocardiography can help visualize the epicardium and detect abnormalities.
Epicardial inflammation often presents with specific, telltale symptoms.
Genetic factors can predispose individuals to epicardial diseases.
In some cases, the epicardium can be affected by metastatic cancer.
Inflammation of the epicardium, known as epicarditis, can cause sharp chest pain.
Research suggests that the epicardium may contribute to cardiac regeneration after injury.
Stem cells derived from the epicardium hold promise for cardiac repair.
Targeting the epicardium holds promise for treating various heart conditions.
The development of the epicardium is tightly regulated by various signaling pathways.
The doctor suspected epicarditis based on the patient's symptoms and ECG findings.
The doctors considered epicardial fat pad volume as a risk factor.
The drug aimed to target specific cells residing within the epicardium.
The epicardium acts as a scaffold for new blood vessel growth in the heart.
The epicardium appears smooth and translucent in a healthy heart.
The epicardium exhibited signs of regeneration following the heart attack.
The epicardium helps to reduce friction between the heart and surrounding tissues.
The epicardium is a complex and multifaceted tissue with a wide range of functions.
The epicardium is a critical component of the heart's protective barrier.
The epicardium is a crucial regulator of cardiac development and function.
The epicardium is a dynamic tissue that constantly adapts to changes in the heart.
The epicardium is a dynamic tissue that is constantly remodeling itself.
The epicardium is a highly vascularized tissue that supports the heart muscle.
The epicardium is a relatively thin layer of tissue, but it plays a crucial role.
The epicardium is a source of growth factors that stimulate angiogenesis.
The epicardium is a source of progenitor cells that can differentiate into various cell types.
The epicardium is closely associated with the visceral pericardium.
The epicardium is composed of a single layer of mesothelial cells.
The epicardium is essential for maintaining the structural integrity of the heart.
The epicardium is involved in the regulation of cardiac contractility.
The epicardium is involved in the regulation of cardiac metabolism.
The epicardium is sometimes used as a grafting site for coronary artery bypass surgery.
The epicardium is the first line of defense against certain types of heart damage.
The epicardium played a critical role in the heart's response to the medication.
The epicardium plays a role in regulating inflammation in the heart.
The epicardium provides a protective barrier against infection and trauma.
The epicardium provides a protective layer around the heart muscle.
The epicardium provides crucial support to the underlying myocardium.
The epicardium responded differently to different types of cardiac stress.
The epicardium secretes various signaling molecules that influence heart development.
The epicardium showed signs of recovery following the treatment regimen.
The epicardium, the outermost layer of the heart, glistened under the surgical lights.
The epicardium's ability to adapt to changing conditions is truly remarkable.
The epicardium's response to injury is a complex and dynamic process.
The epicardium’s contribution to overall cardiovascular health is significant.
The examination revealed a clear separation between the epicardium and myocardium.
The experiment demonstrated the ability of the epicardium to respond to mechanical stress.
The experiment investigated the effect of specific proteins on epicardium development.
The experiment yielded valuable insights into the function of the epicardium.
The gene expression profile of the epicardium changes during cardiac hypertrophy.
The health of the epicardium is crucial for overall cardiovascular well-being.
The heart's outer layer, the epicardium, is responsible for some of its protective functions.
The investigation focused on the interaction between the epicardium and the myocardium.
The microscope revealed subtle changes in the cellular structure of the epicardium.
The new drug was designed to specifically target epicardial inflammation.
The new imaging technique allowed detailed visualization of the epicardium’s structure.
The observed abnormality was localized specifically to the epicardium.
The pathologist noted signs of scarring on the epicardium during the autopsy.
The patient presented with fluid accumulation in the epicardial space.
The patient's chest pain was attributed to inflammation of the epicardium and pericardium.
The patient's condition improved after treatment for epicarditis.
The presence of adhesions on the epicardium complicated the surgery.
The presence of certain proteins in the epicardium can indicate heart damage.
The presence of scar tissue on the epicardium can impair heart function.
The regenerative capacity of the epicardium is still under intense study.
The research focused on understanding the cellular interactions within the epicardium.
The research team is investigating the molecular mechanisms underlying epicardial development.
The researcher’s focus remained on the role of the epicardium in cardiac repair.
The researchers developed a new technique for imaging the epicardium in vivo.
The researchers examined the effects of various drugs on the epicardial cells.
The researchers found that the epicardium expresses a variety of growth factors.
The researchers found that the epicardium plays a role in the response to cardiac injury.
The researchers used advanced imaging techniques to visualize the epicardium in detail.
The role of the epicardium in maintaining heart rhythm is becoming increasingly clear.
The scientists are exploring ways to harness the regenerative potential of the epicardium.
The study aimed to develop new strategies for protecting the epicardium during surgery.
The study aimed to elucidate the role of the epicardium in cardiac fibrosis.
The study aimed to identify novel biomarkers for epicardial disease.
The study aimed to identify novel drug targets within the epicardium.
The study explored the potential of gene therapy to treat epicardial diseases.
The study explored the potential of stem cell therapy to regenerate the epicardium.
The study found a correlation between epicardial thickness and blood pressure.
The study highlighted the importance of maintaining the health of the epicardium.
The study highlighted the importance of the epicardium in cardiac health.
The study investigated the role of the epicardium in ventricular remodeling.
The surgeon carefully examined the epicardium for any signs of abnormality.
The surgeon carefully peeled back the epicardium to access the underlying myocardium.
The surgeons carefully manipulated the tissue surrounding the epicardium.
The team explored the potential of using stem cells to repair the epicardium.
The team successfully engineered artificial epicardium for testing purposes.
The thickness of the epicardium can be measured using cardiac MRI.
The treatment protocol involved reducing inflammation of the epicardium.
Understanding the epicardium is key to unlocking new treatments for heart disease.
Understanding the function of the epicardium is crucial for developing new therapies for heart failure.