Skip to main content

Everything You Need To Know About Heart Attack Complications


A heart attack, or myocardial infarction (MI) occurs when blood flow to your ticker is blocked. Blockages in coronary arteries (the blood vessels that carry oxygenated blood to your ticker) are what causes heart attacks. It is a medical emergency since blocked or reduced blood flow to the ticker damages the heart muscle. The heart muscle will begin to die if blood flow is not restored quickly. Blood clot getting lodged in any artery that has been previously narrowed by a buildup of plaque can reduce blood flow to your ticker or blood flow can become completely cut off. Atherosclerosis or "hardening of the arteries" is what this buildup is known as. Accumulation of plaque in the arteries leading to your ticker is known as coronary artery disease (CAD) (a major MI risk factor).
Heart attack and cardiac arrest are often used interchangeably, but they are different since cardiac arrest is caused by an electrical disturbance (ventricular fibrillation or ventricular tachycardia). Immediate steps should be taken to restore and stabilize the rhythm of the ticker and pumping action. Proper application of the lifesaving CPR procedure can ensure that. Select an accredited training site for a CPR certification Tampa. Remember that a heart attack can lead to a cardiac arrest, but your ticker doesn't always stop beating during an MI event.
Complications:
Complications may arise after an event of MI depending on the location and extent of damage to your ticker. Common complications include
Sudden Cardiac Arrest (SCA)- This condition can be lethal without immediate treatment. If you come across an SCA victim, immediately dial 911 and perform CPR.
Heart Failure (HF)- HF happens when your ticker's pumping action becomes weaker, and it can't pump enough blood to meet the needs of your body. Damage caused to the ticker from coronary heart disease or a heart attack can lead to problems with the pumping function of your ticker.
Abnormal Heart Rhythm- Abnormal heart rhythms happen when the electrical signals that control heartbeats become disorganized.
Valve Problems- Any of the valves can get damaged by a heart attack. Valves keep blood flowing in the correct direction through your ticker, and problems with valves can lead to an abnormal heart murmur, shortness of breath, fatigue, dizziness, and swelling in your ankles and feet.
Depression- According to the American Heart Association, as many as one-third individuals who survive MI will develop depression following the event. Consult with your healthcare provider to discuss treatment options, which may include medication or counseling.
Heart Attack Types:
STEMI Heart Attack- This is the deadliest type that happens when a coronary artery is completely blocked.
NSTEMI Heart Attack- This happens when blood flow to the ticker through a coronary artery is severely restricted but not completely blocked.
Silent Heart Attack- In some cases, individuals have MI with mild symptoms or even none at all. Remember, silent heart attacks can cause permanent damage to the heart muscle.

Comments

Popular posts from this blog

Risks, Types and Causes of Atrial Flutter and CPR Classes in Palm Harbor

Atrial flutter is a problem when the atria of the ticker beats rapidly and regularly due to an anomaly of the ticker’s electrical system that usually results in a tachycardia (an abnormally fast heart rate). An individual with the condition may get feelings like near-fainting, rapid heartbeats (palpitations), mild shortness of breath and fatigue. During atrial flutter, the ticker beats extra fast about 250-400 beats per minute. This type of arrhythmia (abnormal heart rhythm) can be dangerous because complications can easily develop, and a normal heartbeat is 60-100 beats per minute. Atrial fibrillation is another arrhythmia that atrial flutter is closely related to. Atrial Flutter Types : 1.       Persistent atrial flutter which is more or less permanent. 2.       Paroxysmal atrial flutter which can come and go. An atrial flutter episode usually lasts hours or days. Risks: The main danger is that your ticker doesn’t p...

Pediatric Advanced Life Support (PALS) Algorithms for Respiratory and Cardiac Arrests

  Introduction Pediatric Advanced Life Support (PALS) algorithms provide healthcare providers with systematic approaches to managing respiratory and cardiac emergencies in children. These evidence-based protocols are designed to optimize outcomes by offering clear, sequential steps for assessment and intervention during critical situations. Understanding and implementing PALS algorithms correctly can be the difference between life and death for pediatric patients experiencing respiratory distress or cardiac arrest. The Importance of PALS Algorithms in Pediatric Care Respiratory and cardiac emergencies in children differ significantly from those in adults. Children have unique anatomical and physiological characteristics that influence how they respond to respiratory failure and cardiac arrest. For instance, respiratory issues frequently precede cardiac arrest in pediatric patients, unlike in adults, where primary cardiac events are more common. PALS algorithms account for these dif...

Understanding the Consequences of Incomplete Chest Recoil in CPR

  When it comes to performing effective cardiopulmonary resuscitation (CPR), most people focus on the compression depth and rate. However, an equally crucial but often overlooked aspect is chest recoil. The quality of chest recoil during CPR can make the difference between life and death for cardiac arrest victims. This article explores what chest recoil is, why it matters, and the serious consequences of incomplete chest recoil during resuscitation efforts. What Is Chest Recoil in CPR? Chest recoil refers to the return of the chest wall to its natural, expanded position after each compression during CPR. During cardiac arrest, the heart stops pumping blood effectively throughout the body. CPR manually takes over this function through a two-part process: Compression phase : Pushing down on the chest to squeeze the heart and force blood out to vital organs Recoil phase : Completely releasing pressure to allow the chest to return to its resting position This second phase—the complete...