SWAN GANZ CATHETERS The flow-directed balloon-tipped pulmonary artery catheter (PAC) right heart catheter.

Slides:



Advertisements
Similar presentations
Sharon /Penny. 1.Review indications for the use of PA catheter with heart failure patients. 2.The difference of the four major types of PA catheters.
Advertisements

University of Kansas August 20, 2004 Cardiac catheterization conference.
NEJM December 2005 Presentation: R2 黃志宇
Advanced Nursing Concepts Part 1: Hemodynamic Monitoring
Arterial Catheters Systemic arterial blood pressure is most accurately measured by placing a catheter directly into a peripheral artery. Peripheral arterial.
Lines and Tubes.
CVP AND PCWP MONITORING Dr RANDEEP SINGH DHALIWAL MODERATED BY Dr HARSH MADHOK
CO - RELATION WITH ECG INTRA CARDIAC PRESSURES ASHOK MADRAS MEDICAL MISSION CHENNAI
Pulmonary Artery Catheter
5/24/ HEMODYNAMIC MONITORING. OBJECTIVE 5/24/ Describe the three attributes of circulating blood and their relationships. 2. Identify types.
HEMODYNAMIC MONITORING NUR 351/352 PROFESSOR DIANE E. WHITE RN MS CCRN PhD (c)
INVASIVE HEMODYNAMIC MONITORING
Pulmonary artery Balloon (swan Ganz)
CENTRAL VENOUS PRESSURE LEARNING OUTCOMES By the end of this session the student should be able to : Explain the indications for a patient requiring.
Cardiogenic Shock and Hemodynamics. Outline Overview of shock – Hemodynamic Parameters – PA catheter, complications – Differentiating Types of Shock Cardiogenic.
Chapter 15 Assessment of Cardiac Output
Pressure, Flow, and Resistance Understanding the relationship among pressure, flow and resistance can help you understand how cardiac output and vascular.
Hemodynamic Monitoring and Transthoracic Lines
Hemodynamic Monitoring By Nancy Jenkins RN,MSN. What is Hemodynamic Monitoring? It is measuring the pressures in the heart.
MODULE F – HEMODYNAMIC MONITORING. Topics to be Covered Cardiac Output Determinants of Stroke Volume Hemodynamic Measurements Pulmonary Artery Catheterization.
Bio-Med 350 Normal Heart Function and Congestive Heart Failure.
THE CARDIAC CYCLE.
CENTRAL LINES AND ARTERIAL LINES
Embolism.
Hemodynamic Monitoring By Nancy Jenkins RN,MSN. What is Hemodynamic Monitoring? It is measuring the pressures in the heart.
The Cardiovascular System: Structure Function and Measurement Chapter 9.
Shannen Whiddon.  Cardiac tamponade is a condition in which cardiac filling is impeded by an external force.
Cardiac & Respiratory Dynamics. Vascular System Carry blood away from heart Arteries  Arterioles  Capillaries Carry blood to heart Capillaries  Venules.
Pulmonary Artery Catheterization and Interpretation Evan T. Lukow IM – Residency Lecture Series July 7, 2004.
1 © 2013 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part, except for use as permitted in a license.
Focus on Hemodynamic Monitoring and Circulatory Assist Devices
Pediatric Interventions Cardiac Catheterization and Valvuloplasty.
1 Arterial Lines Set Up & Monitoring Union Hospital Emergency Department.
Chapter 16 Assessment of Hemodynamic Pressures
Frank-Starling Mechanism
Cardiovascular Anatomy and Physiology AFAMS Residency Orientation April 16, 2012 ARMED FORCES ACADEMY OF MEDICAL SCIENCES.
Central Venous Access Module. Approach Two approaches are commonly used and will be described: 1.Right internal jugular vein 2.Right sublclavian vein.
CHAPTER 6 DR. CARLOS ORTIZ BIO-208
Copyright © 2008 Lippincott Williams & Wilkins. 1 Assessment of Cardiovascular Function Hemodynamic Monitoring.
Alterations In Homeostasis Shock. Homeostasis What is homeostasis????? Homeostasis is an (ideal or virtual) state of equilibrium, in which all body systems.
HEMODYNAMIC MONITORING: The Fundamentals
Differentiate Pulmonary arterial hypertension from pulmonary venous congestion.
Intra-Aortic Balloon Pump What it is and what it does
Venous Pressure 1.
CVS Monitoring in Shock
RESPIRATORY 221 WEEK 3 PULMONARY BLOOD FLOW. Vascular System  Two Systems : Each have its own reservoir, pump and set of vessels  Pulmonary Circulation.
Ailin Barseghian El-Farra, MD Cath Lab Essentials January 23, 2016
Monitoring During Anaesthesia &Critical State Dr.M.Kannan MD DA Professor And HOD Department of Anaesthesiology Tirunelveli Medical College.
Hemodynamic Monitoring John Nation RN, MSN Thanks to Nancy Jenkins.
Arterial Blood Pressure(ABP) Arterial Blood Pressure(ABP) Central Venous Pressure(CVP) Central Venous Pressure(CVP) Pulmonary Artery Pressure(PAP) Pulmonary.
The Cardiac Cycle. Learning Objectives  To identify & describe the main parts of the cardiac cycle  To describe how the cardiac cycle is controlled.
Heart Structure 13(b). Overview of the Heart – The heart is composed of cardiac muscle tissue. – The heart is about the size of a human fist. –
The Heart. The Pathway of the Blood  Through the heart, beginning at the vena cava.
Cardiac Cycle- 1 Mechanical events, Volume & Pressure changes in cardiac chambers & the great vessels during the cardiac cycle.
 Describe the cardiac cycle (how the heart beats)  Understand the relationship with changing pressures and the valve closures.
An Introduction to Cardiac Medicine
Cardiovascular System
The New Educational Guidelines for Cath Lab Personnel
HEMODYNAMIC MONITORING
HEMODYNAMIC MONITORING
Pulmonary Artery Pressure Monitoring
Cardiac Cath NUR 422.
Cardiac Output O2 Saturation Capillary Refill
Contents The Anatomy of the Heart The Cardiac Cycle: Diagrams 1-14
Lecture 1A. Part 1 The HEART and Cardiac Cycle Holdorf RVT
Pulmonary circulation
The Cardiovascular System (Heart)
Key Area 2.6 – The Structure and Function of the Heart
INVASIVE PRESSURE MONITORING
Presentation transcript:

SWAN GANZ CATHETERS The flow-directed balloon-tipped pulmonary artery catheter (PAC) right heart catheter

The Swan-Ganz Catheter

1-Diagnostic - Diagnosis of shock states - Differentiation of high- versus low-pressure pulmonary edema - Diagnosis of idiopathic pulmonary hypertension - Diagnosis of valvular disease, intracardiac shunts, cardiac tamponade, and pulmonary embolus (PE) - Monitoring and management of complicated AMI - Assessing hemodynamic response to therapies

- Management of multiorgan system failure and/or severe burns - Management of hemodynamic instability after cardiac surgery - Assessment of response to treatment in patients with idiopathic pulmonary hypertension 2- Therapeutic - Aspiration of air emboli

Basic Catheter Features Made of polyvinylchloride and has a pliable shaft that softens at body temperature Catheter is 110 cm and external diameter is either 5 or 7 French Balloon is fastened 1-2mm from the tip and when inflated it guides the catheter (using fluid dynamic drag) from greater intrathoracic veins through tight heart into pulmonary artery Thermistor-4cm proximal to the tip, measures temperature>important for determining cardiac output

Typically catheters have 4 ports: 1.White port with blue wire is the proximal port> terminates at 30cm from tip of catheter and is used to measure right atrium pressures 2.White port, yellow wire is the PAD distal port 3.White port with red wire is for balloon inflation 4.Last port has the connection to the thermodilution cardiac output computer> contains the electrical leads for thermistor.

Insertion Techniques Average time from decision to use PA catheter until onset of catheter based treatment is 120 minutes Goal: get the catheter to the pulmonary artery Cordis into right internal jugular vein or left subclavian allows easiest passage Swan should be oriented ex-vivo to approximate the course in the body Catheter goes through an introducer and into the vein. The balloon stays closed until we reach the right atrium. When we reach the right atrium (20cm), balloon should be inflated to reduce possibility of injury to the myocardium. Then the balloon should be moved quickly through the right ventricle (30cm)> and then pulmonary artery (40cm) and PCWP (50cm) FROM SUBCLAVIAN/IJ APPROACH

Nursing responsibilities during insertion of a Swan Ganz Catheter. 1. Ensure the comfort of the patient 2. Make sure the transducer is flushed and re zeroed and ready to read P.A. 3. Observe the monitor for signs of dysrhythmias 4. Observe the waveforms as the catheter passes through the different chambers of the heart

Nursing Care :- 1. Prevention of infection is paramount 2. The position of the tip may change forward migration will be indicated by a wedge trace with a deflated balloon spontaneous wedging, this may cause pulmonary infarction. Notify a doctor to reposition the catheter. 3. Over inflation of the balloon may cause the PA to rupture, prolonged inflation may result in pulmonary infarction and insertion of air into a ruptured balloon could cause an air embolus.

4. Inflation of the balloon should be done slowly while observing the pressure tracing on the monitor. When the pressure changes from PA to Wedge no more air should be inserted. There should be a slight resistance felt, if there is no resistance and a wedge trace can not be obtained then a balloon rupture should be suspected. The syringe should be therefore labeled as ruptured and medical staff informed. 5. After wedging the catheter always make sure the monitor returns to a PA trace.

How do you know you are in the Right Atrium?>> 20 cm Normal right atrial presssure is 0-6mmHg. Normal oxygen content 15% Normal O2 saturation 75% a=atrial contraction. c=sudden motion of the AV ring toward the right atrium x descent=atrial relaxation v=pressure generated by venous filling of the right atrium y descent=rapid emptying of the RA into RV

How do you know you are in the right ventricle? RV systolic=17-30 RV diastolic=0-6 RV O2 content=15% RV O2 saturation 75% 30cm

How do you know you are in the pulmonary artery? Normal PA pressure, systolic Normal PA pressure, diastolic 5-13 O2 content 15% O2 saturation 75%

What Elevates PA pressure? Volume Overload (backflow) Primary lung disease Primary pulmonary hypertension Pulmonary Embolism Left to right shunt Mitral Valve Disease

What is the Pulmonary Artery Wedge Pressure? The measurement is obtained when the inflated balloon impacts into a slightly smaller branch of the pulmonary artery. This is where the arterial pressure exceeds the venous pressure and the venous pressure exceeds the alveolar pressure, thereby creating a continuous column of blood from the catheter tip to the left atrium when the balloon is inflated. Pulmonary venous pressure is the best indicator of left atrial pressure except when there is venoocclusive disease.

Pulmonary artery wedge 2-12 Pulmonary vein O2 content 20% Pulmonary vein O2 sat 98% Inflation of the Balloon for PCWP Tracing

What Increases PCWP? PEEP (minimally) LV failure Cardiac tamponade Aortic Insufficiency Mitral regurgitation VSD

Effects of PEEP Effects of positive end-expiratory pressure — Alveolar pressure will not return to atmospheric pressure at end-expiration in the presence of positive end-expiratory pressure (PEEP), a change that can affect the measurement of intravascular pressures. The effects of PEEP are generally felt not to be clinically significant. PEEP does affect right sided pressures (i.e. RA or CVP).

Complications Incidence % of vascular Access – Arterial puncture 1.1 – 1.3 – Bleeding at cutdown site 5.3 – Pneumothorax 0.3 – 4.5 – Air Embolism 0.5 of placement – Minor dysrrhythmia 4.7 – 68.9 – Severe dysrrhythmia 0.3 – 62.7 – CHB 0 – 8.5 of catheter residence – PA rupture 0.1 – 1.5 – Catheter related sepsis 0.7 – 11.4 – Thrombophlebitis 6.5 – Venous thrombosis 0.5 – 66.7 Pul. infarction 0.1 – 5.6 Endocarditis/valvular or Endocardial vegetation 2.2 – 100 Deaths Attributed to PA Catheter 0.02 – 1.5