Pocket Guide to Perioperative and Critical Care Echocardiography
CD Videos and Graphics
Table of Contents
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Chapter 1: Ultrasound in perioperative and critical care clinical practice Videos
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Mitral Valve. Colour Doppler interrogation of a myxomatous mitral valve with a prolapse posterior leaflet and eccentric regurgitation. Following repair with a quadrangular resection, sliding leaflet repair and annuloplasty ring showing minimal residual regurgitation.
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Cardiac tamponade with a collapsed right atrium and right ventricle following coronary surgery.
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Hypovolaemia and underfilled left ventricle demonstrating complete emptying of the left ventricle at the end of systole.
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Graphics
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Chapter 2: Understanding the echocardiography machine
No videos.
Chapter 3: Obtaining the best ultrasound image Videos
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Thickness artefact Highly reflective object outside the plane of the scan can still cause reflection of the ultrasound beam and be registered as though it were in the scan plane.
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Side lobe artefact A central ultrasound beam is associated with a secondary beam on either side. The side lobe beams have less intensity, but if they encounter a strong reflector surface, they may produce an image. The ultrasound machine will assume that this image has come from the central beam.
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Dropout artefact This results from signal attenuation caused by inadequate time gain compensation or too high a frequency for the probe being used resulting in poor visualisation of distant structures.
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Shadowing artefact. High levels of acoustic reflection or absorption between the transducer and the region of interest, may result in shadowing artefacts, particularly at an area of change in tissue density.
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Reverberation artefact. Multiple reflections between surfaces (typically the object of interest and the transducer), may result in a second image of this object at exactly twice the distance from the transducer. This is caused by the ultrasound signal being reflected from the object back to the transducer and then from the transducer back to the object and then back to the transducer once more. This takes twice the time, therefore the signal is interpreted as being twice the distance from the transducer.
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Mirror artefact. A false image may be generated as a result of the transmitted sound passed deflecting from multiple surfacesbefore returning to the transducer.
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Refraction artefact. The ultrasound ways may bend as it enters or leaves and interface at an angle.
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Noise artefact. An artefact generated by acoustic or electrical interference.
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Aliasing. This occurs when the velocity of the flow or the tissue exceeds the limit that had been set by the user on the scale. The velocity that is greater than the upper limit, for example, is then displayed at the lower limit of the scale. Or in the case of colour flow, velocities toward the transducer that exceed the upper limit, may be then displayed as velocities at the lowest limit and so flow in one direction can have a mixture of colours (Red becomes Blue or vice versa). Graphics
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Thickness artefact. Highly reflective object outside the plane of the scan can still cause reflection of the ultrasound beam and be registered as though it were in the scan plane.
-
Side lobe artefact. A central ultrasound beam is associated with a secondary beam on either side. The side lobe beams have less intensity, but if they encounter a strong reflector surface, they may produce an image. The ultrasound machine will assume that this image has come from the central beam.
-
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Dropout artefact. This results from signal attenuation caused by inadequate time gain compensation or too high a frequency for the probe being used resulting in poor visualisation of distant structures.
-
Shadowing artefact. High levels of acoustic reflection or absorption between the transducer and the region of interest, may result in shadowing artefacts, particularly at an area of change in tissue density.
-
Reverberation artefact. Multiple reflections between surfaces (typically the object of interest and the transducer), may result in a second image of this object at exactly twice the distance from the transducer. This is caused by the ultrasound signal being reflected from the object back to the transducer and then from the transducer back to the object and then back to the transducer once more. This takes twice the time, therefore the signal is interpreted as being twice the distance from the transducer.
-
Mirror artefact. A false image may be generated as a result of the transmitted sound passed deflecting from multiple surfacesbefore returning to the transducer.
-
Refraction artefact. The ultrasound ways may bend as it enters or leaves and interface at an angle.
-
Noise artefact. An artefact generated by acoustic or electrical interference.
-
Aliasing. This occurs when the velocity of the flow or the tissue exceeds the limit that had been set by the user on the scale. The velocity that is greater than the upper limit, for example, is then displayed at the lower limit of the scale. Or in the case of colour flow, velocities toward the transducer that exceed the upper limit, may be then displayed as velocities at the lowest limit and so flow in one direction can have a mixture of colours (Red becomes Blue or vice versa). PW Doppler. Colour Doppler.
Chapter 4: Core anatomy for echocardiography
No videos or graphics.
Chapter 5: Standard transoesophageal echocardiography examination
Videos and Graphics 20 standard views of transoesophageal echocardiography (TOE or TEE)
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Mid-oesophageal aortic valve short axis Video Image
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Mid-oesophageal right ventricular inflow and outflow Video Image
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Mid-oesophageal aortic valve long axis Video Image
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Mid-oesophageal ascending aortic short axis Video Image
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Mid-oesophageal ascending aortic long axis Video Image
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Mid-oesophageal descending aortic short axis Video Image
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Upper oesophageal aortic arch long axis Video Image
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Upper oesophageal aortic arch short axis Video Image
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Mid-oesophageal descending aortic long axis Video Image
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Non standard views
Mid ascending aorta Image Non standard 5 chamber Image Mid-oesophageal 5 chamber Image Coronary sinus Image Screen representations Correlations between the true anatomical orientation and the image displayed on the screen
Chapter 6: Standard transthoracic echocardiography examination
Videos 1. Parasternal views
Parasternal long axis left ventricle Parasternal long axis right ventricular inflow Parasternal short axis apical left ventricle Parasternal short axis mid papillary left ventricle Parasternal basal left ventricle Parasternal short axis aortic valve
2. Apical views
Apical 4 chamber Apical 5 chamber Apical 2 chamber Apical long axis
3. Subcostal views
Subcostal 4 chamber Subcostal short axis left ventricle mid papillary Subcostal short axis aortic valve Subcostal right atrial inflow IVC Subcostal descending aorta
4. Suprasternal view
Suprasternal aortic arch
Chapter 7: Introduction to Doppler imaging and equations
No videos or graphics
Chapter 8: Assessing the basic haemodynamic state
Videos and Graphics
1. Filling and function
TOE - TG mid Image TTE - PLAX Image
2. Estimation of the left atrial pressure via the Internet atrial septal motion (TOE)
Low LAP Normal LAP Image High LAP Image
3. Haemodynamic states Normal haemodynamic state
TG LV Image Interatrial septum
Empty (hypovolaemia) state
TG LV Image Interatrial septum
Primary diastolic failure
TG LV Image Interatrial septum
Primary systolic failure
TG LV Image Interatrial septum
Systolic and diastolic failure
TTE 4C Image
Vasodilation
TG LV Image Interatrial septum
Right ventricular failure
RV volume overload Biatrial enlargement TTE 4C Image
Chapter 9: Problems with ventricles
Ischaemic heart disease
Dilated cardiomyopathy
DCM A4C DCM PLAX Restrictive cardiomyopathy
Hypertrophic cardiomyopathy
HOCM PSAX HOCM PLAX HOCM SAM Regional wall motion abnormalities
Thrombus
left ventricular aneurysm left ventricular aneurysm thrombus left ventricular apical thrombus left atrial appendage thrombus
Vegetations
aortic valve LAX aortic valve SAX aortic valve LAX with regurgitation
Tumours
LA Myxoma 2C LA Myxoma AV SAX LA Myxoma CFD AV Fibroelastoma
Chapter 10: Problems with valves
Degenerative calcific aortic valve stenosis
Bicuspid valve
Bicuspid AV SAX Bicuspid AV LAX
Mitral stenosis
Rheumatic MV Rheumatic MV CFD
Mitral regurgitation
Myxomatous MV prolapse MV prolapse CFD HOCM MV SAM MV papillary muscle rupture Tricuspid regurgitation
Bioprosthetic valves
Bioprosthetic AV Prosthetic MV paravalvular leak
Endocarditis
Native AV endocarditis with prolapse Native AV endocarditis CFD Native AV endocarditis
Chapter 11: Problems with great vessels
Thoracic aorta Aortic dilation
Aortic dissection
Ascending aortic dissection Ascending aortic dissection CFD Ascending aortic dissection AI Descending aortic dissection
Acute aortic syndrome
Aortic intramural haematoma LAX Aortic intramural haematoma SAX Epiaortic ultrasound assessment of atheroma
Chapter 12: Problems with pericardium and pleura
Videos Pericardial anatomy
Oblique sinus Transverse sinus Acute tamponade
Case example
Normal LV TG mid SAX Normal LV MO 4C Pericardial effusion TG mid SAX Tamponade MO 4C
Graphics Doppler transmitral diastolic flow showing exaggerated respiratory variation
Chapter 13: Ultrasound guided regional anaesthesia
Intercalene region Supraclavicular region
Infraclavicular region Axillary region
Upper arm Doppler Injection with local anaesthetic
Chapter 14: Ultrasound guided vascular access
Find and mark technique for femoral artery cannulation.The femoral vein is being compressed to differentiated from the artery. Needle insertion. This video demonstrates movement of the needle as it is passing through the tissues and compression of the vein before it punctures it.
Needle movement Vein puncture
Internal jugular vein cannulation at various levels.
Angle of the jaw Cricothyroid membrane Supraclavicular Right femoral vessels
Radial artery cannulation
Needle penetrating forearm fascia Needle glancing off radial artery Needle tip compressing radial artery
Brachial vein cannulation
Veins near the elbow Superficial veins being compressed Superficial vein CFD
Chapter 15: Education and training
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