Left-sided heart failure: Nursing process (ADPIE)

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Left-sided heart failure: Nursing process (ADPIE)

ER Nursing Week 2

ER Nursing Week 2

Heart failure: Clinical
Cardiac work
Frank-Starling relationship
Atrial fibrillation
Regulation of pulmonary blood flow
Respiratory alkalosis
Respiratory system anatomy and physiology
Respiratory acidosis
Metabolic and respiratory alkalosis: Clinical
Acute respiratory distress syndrome: Clinical
Respiratory distress syndrome: Pathology review
Upper respiratory tract infection
Acute respiratory distress syndrome
Metabolic and respiratory acidosis: Clinical
Ventilation
Lung cancer
Standards of care for COVID-19 patients
Cardiovascular system anatomy and physiology
Introduction to the cardiovascular system
Control of blood flow circulation
Coronary circulation
Aortic valve disease
Resistance to blood flow
Heart failure
Heart failure: Pathology review
Normal heart sounds
Heart blocks: Pathology review
Abnormal heart sounds
Valvular heart disease: Clinical
Cardiac conduction system
Anatomy of the heart
Valvular heart disease: Pathology review
Rheumatic heart disease
Anatomy clinical correlates: Heart
Left-sided heart failure: Nursing process (ADPIE)
Post-COVID syndrome: Heart, lungs and clotting
Pericardial disease: Pathology review
Tuberculosis: Pathology review
Myocarditis
Dilated cardiomyopathy
Coronary artery disease: Pathology review
Myocardial infarction
ECG cardiac infarction and ischemia
Knowledge Shot: Is Santa Claus at risk of a heart attack
Coronary artery disease: Clinical
Pericarditis and pericardial effusion
Ischemia
Excitability and refractory periods
Antiplatelet medications
Non-corticosteroid immunosuppressants and immunotherapies
Aortic dissection
Aortic aneurysms and dissections: Clinical
Coronary steal syndrome
Venous thromboembolism: Clinical
Pericardial disease: Clinical
Carbon dioxide transport in blood
Zones of pulmonary blood flow
Hypertension: Clinical
Tricuspid valve disease
Sympatholytics: Alpha-2 agonists
Calcium channel blockers
Hypoplastic left heart syndrome
Positive inotropic medications
Familial hypercholesterolemia
Hyperlipidemia
Hypoxia
Laryngitis
Bacterial epiglottitis
Wolff-Parkinson-White syndrome
Atrioventricular nodal reentrant tachycardia (AVNRT)
Marfan syndrome
Brugada syndrome
Action potentials in pacemaker cells
Cardiomyopathies: Clinical
Long QT syndrome and Torsade de pointes
Atrioventricular block
Infective endocarditis: Clinical
Bundle branch block
Peripheral artery disease
Arterial disease
Peripheral vascular disease: Clinical
Cardiac tamponade
Cardiac contractility
ECG cardiac hypertrophy and enlargement
Aortic dissections and aneurysms: Pathology review
Deep vein thrombosis and pulmonary embolism: Pathology review
Pulmonary embolism
Stable angina
Angina pectoris
Prinzmetal angina
Ludwig angina
Unstable angina
Aneurysms
Pleural effusion
Obstructive lung diseases: Pathology review
Pneumonia: Clinical
Emphysema
Imaging features of COVID-19 (LifeBridge Health)

Notes

LEFT-SIDED HEART FAILURE

KEY POINTS
NOTES
PATIENT REPORT
  • 63-year-old man
  • History chronic left-sided heart failure and hypertension
  • Recent shortness of breath, dry cough, and severe fatigue
  • Last hospitalization 6 months ago

PATHOPHYSIOLOGY
  • Heart failure
    • Heart unable pump effectively to maintain cardiac output to meet body's demands
    • Risk factors
      • Uncontrolled hypertension
      • Ischemic heart disease
      • Valvular heart disease
      • Cardiomyopathy
      • Endocarditis
      • Acute myocardial infarction
  • Systolic dysfunction
  • Diastolic dysfunction
  • Left ventricle unable to pump with enough force to push blood into aorta
    • Blood backs up into lungs
    • Can result in pulmonary edema
  • Right-sided heart failure
    • right ventricle unable to move blood forward into lungs
    • Blood backs up in to vena cava
  • Compensation
    • Myocardial contractility increases
    • Heart rate increases
    • Peripheral vascular resistance increases
    • Sodium and water retained
    • Myocytes remodel

ASSESSMENT
  • Short of breath, tired, fatigued
  • Non-productive cough
  • Wakes up in sleep, sleeps well in recliner
  • Urinating less than normal
  • 30 mL clear, yellow urine in bedside urinal
  • Nasal flaring
  • Diaphoretic
  • Wheezing and crackles
  • Prolonged capillary refill
  • Heart rate: 110
  • Respiratory rate: 24
  • Blood pressure: 158/88 mmHg
  • Oxygen saturation: 92% room air
  • Temperature: 98.2 F (36.7 C)
  • Pain: 0/10
  • ECG: normal sinus rhythm
    • Previous ejection fraction: 45%
  • Chest X-ray: mild left ventricle enlargement

NURSING DIAGNOSES
  • Impaired gas exchange related to alveolar-capillary changes
  • Decreased cardiac output related to altered myocardial contractility 
  • Activity intolerance related to imbalanced oxygen supply/demand
  • Excess fluid volume related to decreased cardiac output
  • Fatigue related to decreased oxygenation

PLANNING
  • Decrease in periods of dyspnea
  • Clear breath sounds and stable vital signs
  • Balance fluid intake and output
  • Understand risk factors for exacerbations
  • Verbalize appropriate dietary choices 

IMPLEMENTATION
  • Delegate strict intake and output to nursing assistant
  • Apply oxygen
  • Provide education
  • Administer medications as prescribed
  • Teach about avoiding large amounts of caffeine and sodium
  • Identify foods for a low cholesterol, low-fat diet
  • Review fluid restrictions
  • Instruct to weigh daily

EVALUATION
  • Increased urinary output
  • Minimal wheezing and crackles
  • Walks further
  • Decreased nasal flaring
  • Minimal coughing
  • Heart rate: 95
  • Respiratory rate: 20
  • Blood pressure: 142/82 mmHg
  • Oxygen saturation: 94% on 2L nasal cannula
  • Temperature: 98.2 F (36.7 C)
  • Verbalizes dietary guidelines

Transcript

Watch video only

Jamal Hendrick is a 63-year-old male client who was admitted to the Medical-Surgical floor yesterday.

Mr. Hendrick has a history of chronic left-sided heart failure and hypertension.

He was directly admitted by his cardiologist after complaints of shortness of breath, dry cough, and severe fatigue.

He states his last hospitalization was around 6 months ago for similar symptoms.

Heart failure, also called congestive heart failure, is when the heart is unable to pump effectively enough to maintain cardiac output to meet the demands of the body.

Common risk factors for heart failure include uncontrolled hypertension, ischemic heart disease, valvular heart disease, cardiomyopathy, endocarditis, and acute myocardial infarction.

The onset of heart failure can be acute, which occurs suddenly and resolves in a short period of time, but usually develops slowly over a long period of time and persists as a chronic disease.

Often an individual can live with chronic heart failure, but then suddenly develop an acute exacerbation.

Heart failure can be the result of either systolic dysfunction, which is due to inadequate contractility, or diastolic dysfunction, when the heart is unable to relax and fill with blood.

Heart failure can affect the right side, the left side, or both sides of the heart.

The left and right sides of the heart are two separate pumping systems, and one side can remain functional for some time even if the other side is failing.

Most cases of heart failure initially start on the left side, and then eventually progress to include both sides.

With left-sided heart failure, the left ventricle is unable to pump with enough force to push blood into the aorta and the rest of the body.

When this happens, the blood remaining in the left side of the heart will back up into the lungs, causing pulmonary problems such as dyspnea, tachypnea, crackles, dry cough, paroxysmal nocturnal dyspnea, pulmonary edema, and pulmonary hypertension.

Pulmonary edema is a life-threatening emergency where the lungs fill up with fluid causing very high pressure.

Someone with pulmonary edema will present with a large amount of blood-tinged frothy sputum, severe dyspnea, tachycardia, profuse sweating, and cyanosis.

With right-sided heart failure, the right ventricle is not able to move blood forward into the lungs, causing it to back up into the superior and inferior vena cavae and the rest of the venous system.

Right-sided heart failure is almost always caused by left-sided heart failure, because increased pulmonary pressure from blood backing up into the lungs from the left side makes it more difficult for the right side to pump blood into the lungs.

As the right side works harder to overcome the increased pressure it eventually wears out and fails.

Symptoms of right heart failure include dependent edema, jugular venous distension, abdominal distension, splenomegaly, anorexia, weight gain, nocturnal diuresis, and hypertension or hypotension.

Certain mechanisms kick in to try to compensate for the decreased cardiac output.

Through the Frank-Starling mechanism, myocardial contractility is increased, which helps push blood forward.

The sympathetic nervous system also responds by increasing heart rate, increasing peripheral vascular resistance, and further enhancing cardiac contractility.

Sodium and water is retained through the actions of the renin-angiotensin-aldosterone system, which provides additional circulating volume.

The ventricular cells, or myocytes, undergo remodeling, resulting in changes such as increased muscle mass and thickening of the ventricular wall.

These compensatory efforts will initially lead to an increase in cardiac output, but over time the heart will be overburdened and less efficient.

When this happens, clinical symptoms of heart failure will appear. Without treatment, heart failure will progress and result in complications such as pleural effusion, cardiac dysrhythmias, and renal failure.

Okay, let’s get back to our client.

Upon entering Mr. Hendrick’s room, you introduce yourself, confirm his identity, and wash your hands.

You begin your assessment of Mr. Hendrick by asking him how he is feeling today.

He tells you he feels short of breath, but better than when he was admitted.

Mr. Hendrick goes on to say he is extremely tired today, and that he has been feeling fatigued for several days.

You ask Mr. Hendrick what caused him to start feeling short of breath, and he replies he just walked to the bathroom.

You notice he pauses several times during your chat to cough, but it’s non-productive.

You ask Mr. Hendrick if he has issues breathing at night, he replies he wakes up every night with difficulty breathing and that he sleeps better in his recliner.

You ask Mr. Hendrick if he has been using the bathroom regularly, he states he has been urinating less than normal.

You check the bedside portable urinal and document 30 milliliters of clear yellow urine.

Upon visual inspection of Mr. Hendrick, you notice that in addition to appearing slightly short of breath, nasal flaring is present, he’s using his accessory muscles to breathe, and he’s diaphoretic.

You auscultate his lungs and hear wheezing on inhalation and crackles throughout both lobes.

You assess capillary refill and note that it is decreased.

Skin color and turgor are normal.

Mr. Hendrick’s vital signs are HR: 110, RR: 24, BP: 158/88, oxygen saturation: 92% on room air, oral temp.: 98.2° F, pain: 0/10.