SlideShare uma empresa Scribd logo
1 de 77
 Indications for TEE
 Contraindications for TEE
 Sedation and anesthesia
 Probe insertion and manipulation
 Comprehensive transesophageal echocardiographic
imaging examination
Probe Insertion Techniques
 After adequate application of topical anesthetic, a bite
block should be placed in the patient’s mouth before
the administration of conscious sedation.
 The patient is typically placed in the left lateral
decubitus position, and the echocardiographer stands
facing the patient on the left-hand side of the stretcher
Four standard transducer positions within the esophagus and stomach and the
associated imaging planes.
Standard imaging plane levels (from the incisors )
•upper or high esophageal (25–28 cm)
•mid-esophageal (29–33 cm)
•gastroesophageal junction (34–37 cm)
•transgastric (38–42 cm)
•deep-transgastric (>42 cm)
ME Five-Chamber View
 After initially passing the probe into the esophagus, it
is slowly advanced until the AVand LVoutflow tract
come into view at a probe depth of about 30 cm.
 Slight transducer angle manipulation (10 rotation)will
allow image optimization of the AV and LVoutflow
tract.
 In this plane, the left atrium, right atrium, LV, right
ventricle, MV,and TV will also be imaged.
 This view allows visualization of the A2-A1 and P1-P2
scallops(from left to right on the imaging plane) of the
MV and two of the three AV cusps.
ME Five-Chamber View
ME Four-Chamber View
 From the ME five-chamber view, the probe is advanced
slowly to a depth of about 30 to 35 cm until the MV is
clearly seen.
 Structures seen include
the left atrium, right atrium, interatrial septum, LV,
right ventricle, interventricular septum, MV (A3A2 and
P2P1 scallops), and TV.
 The ME four-chamber view is one of the most
comprehensive views available for evaluating cardiac
anatomy and function.
 Turning the probe to the left (counterclockwise) allows
imaging of primarily the left heart structures.
 Turning the probe to the right (clockwise) allows imaging
of primarily right heart structures.
 Diagnostic Issues
 Chamber enlargement and function
 LV systolic function
 MV pathology
 TV pathology
 Atrial septal defect (ASD Primum)
 Pericardial effusion
ME Four-Chamber View
ME Mitral Commissural View
 From the ME four-chamber view, rotating the transducer angle
to between 50 and 70 will generate the ME mitral commissural
view.
 From this neutral probe orientation,
 turning the probe leftward (counterclockwise) -- PML (P3P2P1).
 Turning the probe rightward (clockwise ) ----AML (A3A2A1).
 the anterolateral and posteromedial papillary muscles
 Diagnostic Issues
 LA: mass, thrombus
 LV systolic function
 MV pathology
ME Mitral Commissural View
. ME Two-Chamber View
 From the ME mitral commissural view, rotating the
transducer angle to between 80 and 100 will generate the
ME two-chamber view.
 Structures seen include the left atrium, LA appendage, LV,
and MV (P3-A3A2A1).
 Diagnostic Issues
 LAA: mass, thrombus
 LV systolic function (inferior and anterior)
 LV apex pathology
 MV pathology
ME Two-Chamber View
ME LAX View
 From the ME two-chamber view, the transducer angle is rotated
to approximately 120 to 140 to image the ME LAX view.
 Structures seen include the left atrium, LV, LVoutflow tract, AV,
proximal ascending aorta, coronary sinus, and MV(P2-A2).
 Diagnostic Issues
 MV pathology
 LV systolic function
 IVS pathology (VSD)
 LVOT pathology
 AV pathology
 Aortic root pathology
ME LAX View
 ME five chamber view ( A2 A1 P2P1)
advance
 ME four chamber view (A3 A2 P2 P1)
rotate 50-70 degrees
 ME MV commisural view (A1-3 P1-3)
rotate 80-100
 ME two chamber view (P3A3A2A1)
rotate 120-140
 ME LAX view ( P2 A2)
Mitral valve
ME AV LAX View
 From the ME LAX view, slight withdrawal of the probe while
maintaining a transducer angle of 120 to 140 results in the ME AV
LAX view.
 The anterior (far-field) AV cusp is the right coronary cusp
 The posterior (near field) cusp can be the noncoronary cusp or
the left coronary cusp, depending on the window
 Diagnostic Issues
 AV pathology
 Aortic root dimensions
 Aortic root pathology
 LVOT pathology
 MV anterior leaflet
 Ventricular septal defect (VSD)
ME AV LAX View
ME Ascending Aorta LAX View
 From the ME AV LAX view, withdrawal of the probe,
typically with backward rotation to approximately 90
to 110, results in theME ascending aorta LAX view.
 This view allows evaluation of the proximal ascending
aorta.
 The right pulmonary artery (PA) lies posterior to the
ascending aorta in this view
ME Ascending Aorta LAX View
. ME Ascending Aorta SAX View
 From the ME AV and ascending aorta view, backward
transducer rotation to approximately 0 to 30 results in
the ME ascending aorta SAX view.
 In addition to the ascending aorta in SAX and the
superior vena cava in SAX, the main PA and right lobar
PA can be seen.
 From this neutral probe orientation, turning the
probe to the left (counterclockwise) allows imaging of
the PA bifurcation.
. ME Ascending Aorta SAX View
ME Right Pulmonary Vein View
 From the ME ascending aorta SAX view, advancing the
probe and turning to the right (clockwise) will result
in theME right pulmonary vein view.
 The right pulmonary veins can also be imaged from
the 90 to 110 view by first obtaining a ME bicaval view
and turning the probe to the right (clockwise).
 the left pulmonary veins may be imaged by turning
the probe to the left (counterclockwise) just beyond
the left atrial appendage.
ME Right Pulmonary Vein View
 ME LAX view ( 120-140*)
withdrawal
 ME AV LAX view
withdraw& rotate 90-110*
ME ascending aorta LAX view
rotate 0-30*
 ME ascending aorta SAX view
ME Right PV view ME Left PV view
Clockwise
rotation Counterclockwise
rotation
ME AV SAX View
 From the ME right pulmonary vein view, reposition the
probe (turning to the left, counterclockwise) to center the
aorta in the display and advance and rotate the transducer
angle to between 25 and 45 to obtain the ME AV SAX view.
 AV morphology and function can be evaluated from this
view.
 with a subtle degree of withdrawal, the left coronary artery
and the right coronary artery can be imaged.
 In addition to the AV, a portion of the superior LA,
interatrial septum, and right atrium are imaged.
ME AV SAX View
ME RV Inflow-Outflow View
 From the ME AV SAX view, slight advancement of the probe and
rotating the transducer angle to 50 to 70 until the RVOT and PV
appear in the display results in the ME RV inflow-outflow view.
 Structures seen in the view include the left atrium, right atrium,
interatrial septum, TV, RV , RVOT , PV, and proximal (main) PA.
 Diagnostic Issues
 Pulmonic valve pathology
 Pulmonary artery pathology
 RVOT pathology
 TV pathology
 Atrial septal defect (ASD secundum)
 Ventricular septal defect (VSD)
ME RV Inflow-Outflow View
ME Modified Bicaval TV View
 From the ME RV inflow-outflow view, maintaining a
transducer angle of 50° to 70°, the probe is turned to
the right (clockwise) until primarily the TV is centered
in the view, resulting in the ME modified bicaval TV
view.
 The left atrium, right atrium, interatrial septum,
inferior vena cava, and TV are imaged
ME Modified Bicaval TV View
ME Bicaval View
 From the ME modified bicaval TV view, the transducer angle is
rotated forward to 90° to 110°, and the probe is turned to the
right (clockwise) to obtain the ME bicaval view.
 Imaged in this view are the left atrium, right atrium, inferior
vena cava, superior vena cava, right atrial appendage, and
interatrial septum.
Diagnostic Issues
 IAS: Atrial septal defect (ASD)
 Mass
 SVC/IVC flow
 Venous catheters
 Pacemaker wires
 Venous cannula position (SVC/IVC)
ME Bicaval View
ME Right and Left Pulmonary Vein
View
 At a transducer angle of 90° to 110°, imaging of either
the right or left pulmonary veins can be performed.
 From the ME bicaval view, turning the probe further
to the right (clockwise) will result in imaging of the
right pulmonary vein.
 Turning the probe to the left (counterclockwise)
visualise ME left pulmonary vein view.
ME Right and Left Pulmonary Vein
View
ME LA Appendage View
 From the ME left pulmonary vein view (at a transducer angle of
90° to 110°), turning the probe to right (clockwise) with possible
advancement and/or anteflexion of the probe will open the LA
appendage for the ME LA appendage view.
 Backward rotating from 90° to 0° while imaging the LA
appendage and/or simultaneous multiplane imaging should be
performed.
 Color flow Doppler and pulsed-wave Doppler may be useful,
particularly for assessment of emptying velocities.
ME LA Appendage View
 ME right Pulmonary vein view
reposition , advance ,rotate 25-45*
 ME AV SAX view
advance,rotate 50-70 degrees
 ME RV inflow outflow view
clockwise rotation
 ME modified bicaval TV view
rotate 90-110*
 ME bicaval view
advance ,clockwise rotation,anteflexion
 ME LA appendage view
Transgastric
views
most important transesophageal
views
best for evaluating left and right
ventricular function
commonly employed intra
operative TEE to assess ejection
fraction and wall motion post-
operatively
deep transgastric views are the
best views to obtain accurate
gradients across the aortic valve to
assess the degree of AS or AR
TG Basal SAX View
 From the ME views and at a transducer angle of 0° to 20°, the
probe is straightened and advanced into the stomach, and the
probe is then anteflexed to obtain the TG basal SAX view.
 This view demonstrates the typical SAX view or “fish mouth”
appearance of the MV in the TG imaging plane with the anterior
leaflet on the left of the display and the posterior leaflet on the
right.
 The medial commissure is in the near field, with the lateral
commissure in the far field.
Diagnostic Issues
 MV: pathology, origin MR
 LV: basal segment function
 Ventricular septal defect (VSD)
TG Basal SAX View
TG Midpapillary SAX View
 While maintaining contact with the gastric wall, the anteflexed probe
for the TG basal SAX view can be relaxed to a more neutral position,
and transducer angle should remain at 0° to 20°. to obtain the TG
midpapillary SAX view.
 This is the primary TG view for intraoperative monitoring of LV size
and function because myocardium supplied by the left anterior
descending, circumflex, and right coronary arteries can be seen
simultaneously.
 Turning the probe to the right from this view will typically image the
mid-RV in SAX.
TG Midpapillary SAX View
TG Apical SAX View
 From the TG midpapillary SAX view (0°-20°), the
probe is advanced while maintaining contact with the
gastric wall, to obtain the TG apical SAX view.
 The RV apex is imaged from this view by turning to the
right (clockwise).
 This view allows evaluation of the apical segments of
the left and right ventricles.
TG Apical SAX View
TG RV Basal View
 Returning to the TG basal SAX view (anteflexed, at a
transducer angle of approximately 0° to 20°) by turning
the probe toward the patient’s right (clockwise), the
TG basal RV view can be seen.
TG RV Basal View
TG RV Inflow-Outflow View
 From the TG basal RV view (transducer angle of 0° to
20°), maximal right flexion results in the TG RV
inflow-outflow view.
 In this view, typically the anterior and posterior
leaflets of the TV are imaged, as well as the left and
right cusps of the PV.
TG RV Inflow-Outflow View
Deep TG Five-Chamber View
 From the TG RV inflow-outflow view (transducer
angle of 0° to 20°), advancing the probe to the deep TG
level, with anteflexion , results in the deep TG five-
chamber view.
 Because of parallel Doppler beam alignment with the
LV outflow tract, AV, and proximal aortic root, color
and spectral Doppler interrogation of the LV outflow
tract and AV is possible.
Deep TG Five-Chamber View
TG Two-Chamber View
 The probe is returned to the TG midpapillary SAX view,
and the transducer angle is rotated to approximately 90° to
110° to obtain the TG two-chamber view.
 The anterior and inferior walls of the left ventricle are
imaged in addition to the papillary muscles, chordae, and
MV.
 Diagnostic Issues
 LV systolic function
 MV subvalvular apparatus
 MV pathology
TG Two-Chamber View
TG RV Inflow View `
 From the TG two-chamber view (transducer angle of 90° to
110°), turning to the right (clockwise) will result in the TG
RV inflow (or RV two-chamber) view.
 The anterior and inferior walls of the right ventricle are
imaged in addition to the papillary muscles, chordae, and
TV
 Diagnostic Issues
 TV pathology
 RV systolic function
 Right atrial (RA) mass
TG RV Inflow View
TG LAX View
 From the TG RV inflow view, turning to the left (counterclockwise) to
return to the TG two-chamber view, then rotating the transducer angle
to 120° to 140° will result in the TG LAX view.
 inferolateral wall ,anterior septum , the LV outflow tract, AV, and
proximal aorta are visualised .
 Diagnostic Issues
 MV: leaflets, subvalvular
 LV systolic function
 AV Doppler gradient
 LVOT Doppler gradient
 Ventricular septal defect (VSD)
 Prosthetic AV function
TG LAX View
Descending Aorta SAX and
Descending Aorta LAX Views
 From the TG LAX view, the transducer angle is returned to 0° to
10° and the probe turned to the left (counterclockwise).
 The SAX view of the aorta is obtained at a transducer angle of 0°
to 10° , while the LAX view is obtained at a transducer angle of
approximately 90° to 100° .
 Diagnostic Issues
 Aorta atherosclerosis
 Aorta dissection
 Aorta aneurysm
 Left pleural effusion
 AI severity PW Doppler
 IABP position
Descending Aorta SAX
Descending Aorta LAX Views
 ME View with transducer at 0-20*
advance into stomach & antiflex
 TG Basal SAX view
probe in neutral position & advance
 TG mid papillary view advance TE Apical SAX view
rotate 90-110*
 TG 2 Chamber view
rotate 120-140*
 TG LAX View
 counterclockwise rotation
0-10* 90-100*
descending aorta SAX view LAX view
upper esophageal
High esophageal views are helpful for
evaluating the great vessels including the
aortic root and coronary arteries,
ascending aorta and the pulmonary
artery
UE Aortic Arch LAX View
 While evaluating the descending aorta SAX view (transducer
angle 0° to 10°) and withdrawing the probe, the aorta will
eventually become elongated, and the left subclavian artery may
be imaged, indicating the beginning of the distal aortic arch.
 the aorta is positioned anterior to the esophagus, and thus the
UE aortic arch LAX view is best imaged by then turning to the
right (clockwise) so the probe faces anterior.
 This allows imaging of the mid aortic arch
 the left innominate vein is also seen.
Diagnostic Issues
 Aorta atherosclerosis
 Aorta dissection
 Aorta aneurysm
UE Aortic Arch LAX View
UE Aortic Arch SAX View
 From the UE aortic arch LAX view, the transducer angle is
rotated toward 70° to 90° to obtain the UE aortic arch SAX
view.
Diagnostic Issues
 Aorta atherosclerosis
 Aorta dissection
 Aorta aneurysm
 Pulmonic valve pathology
 Patent ductus arteriosus (PDA)
 Swan–Ganz catheter position
UE Aortic Arch SAX View
MITRAL VALVE
 Calculation of mitral annulus diameter
 ME four-chamber in mid-diastole (ASE
guidelines)
ME LAX and MV commissural views
Aortic valve
 LAX and AV SAX view (,AV cusp number, the
length of the free edges of the AV cusps, and the area
of the Av orifice can be measured.
 The cusp adjacent to the atrial septum is the
noncoronary cusp, the most anterior cusp is the right
coronary cusp, and the other is the left coronary cusp
 The ME AV LAX view (view #6) allows imaging of the
basal portion,of the ventricular septum, LVoutflow
tract, as well as AV, annulus, and aortic sinuses
 Measurement of the LVoutflow tract should be
performed in early to midsystole, and within 5 mm of
the annulus.
 The annulus is identified as the points of attachment
of the AV cusps (or hinge point) and is normally
between 1.8 and 2.5 cm.
Pilmonary valve
 The three PV cusps are named by their relative
position to the AV.
 the right and left cusps, correspondingto the right and
left cusps of the AV. The third cusp is anterior or
‘‘opposite’’ cusp.
 PV view
 counterclockwise rotation from the ME ascending
aorta LAX view as well as the ME ascending aortic
SAX view .
 TheME RV inflow-outflow view (view #11) allows
visualization of
 two of the leaflets (typically the left or right and
anterior) and is a useful
 screen for leaflet mobility, thickness, and
regurgitation with 2D and
 color Doppler imaging.
 The TV is the largest and most apically positioned
valve.
 The TV complex is composed of three leaflets
(anterior, posterior, and septal
 The anterior leaflet is the longest radial leaflet, and
the septal leaflet is the shortest.
 ME four-chamber view --- the septal and anterior
leaflets are typically imaged
 TG basal RV view , TG RV inflow-outflow view
and TG RV inflow view ---- posterior leaflet of the TV
Thank u

Mais conteúdo relacionado

Mais procurados

Echo assessment of Aortic Regurgitation
Echo assessment of Aortic RegurgitationEcho assessment of Aortic Regurgitation
Echo assessment of Aortic RegurgitationMashiul Alam
 
Echocardiography assessment of Aortic Regurgitation severity
Echocardiography assessment of Aortic Regurgitation severityEchocardiography assessment of Aortic Regurgitation severity
Echocardiography assessment of Aortic Regurgitation severityPRAVEEN GUPTA
 
Echo Mitral Stenosis
Echo Mitral StenosisEcho Mitral Stenosis
Echo Mitral StenosisMashiul Alam
 
comprehensive TEE examination
comprehensive TEE examinationcomprehensive TEE examination
comprehensive TEE examinationrichamalik99
 
Tissue doppler Echocardiography (TDE)
Tissue doppler Echocardiography (TDE)Tissue doppler Echocardiography (TDE)
Tissue doppler Echocardiography (TDE)sruthiMeenaxshiSR
 
Aortic stenosis - Echocardiography
Aortic stenosis - EchocardiographyAortic stenosis - Echocardiography
Aortic stenosis - EchocardiographyAnkur Gupta
 
Echo assessment of lv systolic function and swma
Echo assessment of lv systolic function and swmaEcho assessment of lv systolic function and swma
Echo assessment of lv systolic function and swmaFuad Farooq
 
Angiographic projections
Angiographic projectionsAngiographic projections
Angiographic projectionsFuad Farooq
 
Echo assessment of aortic stenosis
Echo assessment of aortic stenosisEcho assessment of aortic stenosis
Echo assessment of aortic stenosisNizam Uddin
 
Echocardiographic Evaluation of Hypertrophic Cardiomyopathy
Echocardiographic Evaluation of Hypertrophic CardiomyopathyEchocardiographic Evaluation of Hypertrophic Cardiomyopathy
Echocardiographic Evaluation of Hypertrophic CardiomyopathyHatem Soliman Aboumarie
 
Diastolic Dysfunction 2016
Diastolic Dysfunction 2016Diastolic Dysfunction 2016
Diastolic Dysfunction 2016drabhishekbabbu
 
Echocardiographic evaluation of mitral regurgitation
Echocardiographic evaluation of mitral regurgitationEchocardiographic evaluation of mitral regurgitation
Echocardiographic evaluation of mitral regurgitationsruthiMeenaxshiSR
 
Transesophageal echocardiography
Transesophageal echocardiographyTransesophageal echocardiography
Transesophageal echocardiographyAmit Gulati
 

Mais procurados (20)

Transesophageal echocardiography(TEE)
Transesophageal echocardiography(TEE)Transesophageal echocardiography(TEE)
Transesophageal echocardiography(TEE)
 
Echo assessment of Aortic Regurgitation
Echo assessment of Aortic RegurgitationEcho assessment of Aortic Regurgitation
Echo assessment of Aortic Regurgitation
 
Right Ventricle Echocardiography
Right Ventricle EchocardiographyRight Ventricle Echocardiography
Right Ventricle Echocardiography
 
Echocardiography assessment of Aortic Regurgitation severity
Echocardiography assessment of Aortic Regurgitation severityEchocardiography assessment of Aortic Regurgitation severity
Echocardiography assessment of Aortic Regurgitation severity
 
Echo Mitral Stenosis
Echo Mitral StenosisEcho Mitral Stenosis
Echo Mitral Stenosis
 
comprehensive TEE examination
comprehensive TEE examinationcomprehensive TEE examination
comprehensive TEE examination
 
Tissue doppler Echocardiography (TDE)
Tissue doppler Echocardiography (TDE)Tissue doppler Echocardiography (TDE)
Tissue doppler Echocardiography (TDE)
 
Coronary angiogram
Coronary angiogramCoronary angiogram
Coronary angiogram
 
Aortic stenosis - Echocardiography
Aortic stenosis - EchocardiographyAortic stenosis - Echocardiography
Aortic stenosis - Echocardiography
 
Echo assessment of lv systolic function and swma
Echo assessment of lv systolic function and swmaEcho assessment of lv systolic function and swma
Echo assessment of lv systolic function and swma
 
Angiographic projections
Angiographic projectionsAngiographic projections
Angiographic projections
 
Echo assessment of aortic stenosis
Echo assessment of aortic stenosisEcho assessment of aortic stenosis
Echo assessment of aortic stenosis
 
Echocardiographic Evaluation of Hypertrophic Cardiomyopathy
Echocardiographic Evaluation of Hypertrophic CardiomyopathyEchocardiographic Evaluation of Hypertrophic Cardiomyopathy
Echocardiographic Evaluation of Hypertrophic Cardiomyopathy
 
Diastolic Dysfunction 2016
Diastolic Dysfunction 2016Diastolic Dysfunction 2016
Diastolic Dysfunction 2016
 
Echo assessment of mitral regurgitation
Echo assessment of mitral regurgitationEcho assessment of mitral regurgitation
Echo assessment of mitral regurgitation
 
SEGMENTAL ANALYSIS OF CONGENITAL HEART DISEASE
SEGMENTAL ANALYSIS OF CONGENITAL HEART DISEASE SEGMENTAL ANALYSIS OF CONGENITAL HEART DISEASE
SEGMENTAL ANALYSIS OF CONGENITAL HEART DISEASE
 
Echocardiographic evaluation of mitral regurgitation
Echocardiographic evaluation of mitral regurgitationEchocardiographic evaluation of mitral regurgitation
Echocardiographic evaluation of mitral regurgitation
 
Transesophageal echocardiography
Transesophageal echocardiographyTransesophageal echocardiography
Transesophageal echocardiography
 
Echo in pericardial diseases
Echo in pericardial diseasesEcho in pericardial diseases
Echo in pericardial diseases
 
Transesophageal echocardiography
Transesophageal echocardiographyTransesophageal echocardiography
Transesophageal echocardiography
 

Semelhante a TEE VIEWS

UPDATED transesophagealechocardiography.pptx dr ved.pptx
UPDATED transesophagealechocardiography.pptx dr ved.pptxUPDATED transesophagealechocardiography.pptx dr ved.pptx
UPDATED transesophagealechocardiography.pptx dr ved.pptxDrVedprakashVerma1
 
TEE Dr Abhishek - Copy.pptx
TEE Dr Abhishek - Copy.pptxTEE Dr Abhishek - Copy.pptx
TEE Dr Abhishek - Copy.pptxabhishek tiwari
 
TEE VIEWS transesophageal echocardiography views.pptx
TEE VIEWS transesophageal echocardiography views.pptxTEE VIEWS transesophageal echocardiography views.pptx
TEE VIEWS transesophageal echocardiography views.pptxssuser11ad68
 
TRANSESOPHAGEAL ECHOCARDIOGRAPHY
TRANSESOPHAGEAL ECHOCARDIOGRAPHYTRANSESOPHAGEAL ECHOCARDIOGRAPHY
TRANSESOPHAGEAL ECHOCARDIOGRAPHYSYED ALI AFRIN
 
Transesophageal ECHO in anesthesia lecture usama Elsayed
Transesophageal ECHO in anesthesia lecture usama Elsayed Transesophageal ECHO in anesthesia lecture usama Elsayed
Transesophageal ECHO in anesthesia lecture usama Elsayed usama elsayed
 
Echo views
Echo viewsEcho views
Echo viewsnmonty02
 
2d Transthoracic Echocardiographic views
2d  Transthoracic Echocardiographic views2d  Transthoracic Echocardiographic views
2d Transthoracic Echocardiographic viewsSruthi Meenaxshi
 
ECHO WINDOWS AND VIEWS.pptx
ECHO WINDOWS AND VIEWS.pptxECHO WINDOWS AND VIEWS.pptx
ECHO WINDOWS AND VIEWS.pptxRutviThaker
 
ECHO views and measurements-Dr. Razu.pptx
ECHO views and measurements-Dr. Razu.pptxECHO views and measurements-Dr. Razu.pptx
ECHO views and measurements-Dr. Razu.pptxhakimnasir3
 
Transthoracic Echocardiogram, 3D, Doppler, TEE.pptx
Transthoracic Echocardiogram, 3D, Doppler, TEE.pptxTransthoracic Echocardiogram, 3D, Doppler, TEE.pptx
Transthoracic Echocardiogram, 3D, Doppler, TEE.pptxSalmanMajid2
 
Chapter 2: How to Image Echo Views
Chapter 2: How to Image Echo ViewsChapter 2: How to Image Echo Views
Chapter 2: How to Image Echo ViewsChristina Nolte
 
Transesophageal echocardiography
Transesophageal echocardiographyTransesophageal echocardiography
Transesophageal echocardiographyNeeraj Varyani
 
Electrocardiographymain
ElectrocardiographymainElectrocardiographymain
Electrocardiographymainstudent
 
Presentation 14 fetal Echo.pdf
Presentation 14 fetal Echo.pdfPresentation 14 fetal Echo.pdf
Presentation 14 fetal Echo.pdfJosephJohny16
 

Semelhante a TEE VIEWS (20)

Echo.basics
Echo.basicsEcho.basics
Echo.basics
 
UPDATED transesophagealechocardiography.pptx dr ved.pptx
UPDATED transesophagealechocardiography.pptx dr ved.pptxUPDATED transesophagealechocardiography.pptx dr ved.pptx
UPDATED transesophagealechocardiography.pptx dr ved.pptx
 
TEE Dr Abhishek - Copy.pptx
TEE Dr Abhishek - Copy.pptxTEE Dr Abhishek - Copy.pptx
TEE Dr Abhishek - Copy.pptx
 
Echocardiography
EchocardiographyEchocardiography
Echocardiography
 
TEE VIEWS transesophageal echocardiography views.pptx
TEE VIEWS transesophageal echocardiography views.pptxTEE VIEWS transesophageal echocardiography views.pptx
TEE VIEWS transesophageal echocardiography views.pptx
 
ECHO ASSESSMENT OF ASD FOR DEVICE CLOSURE
ECHO ASSESSMENT OF ASD FOR DEVICE CLOSURE ECHO ASSESSMENT OF ASD FOR DEVICE CLOSURE
ECHO ASSESSMENT OF ASD FOR DEVICE CLOSURE
 
TRANSESOPHAGEAL ECHOCARDIOGRAPHY
TRANSESOPHAGEAL ECHOCARDIOGRAPHYTRANSESOPHAGEAL ECHOCARDIOGRAPHY
TRANSESOPHAGEAL ECHOCARDIOGRAPHY
 
Transesophageal ECHO in anesthesia lecture usama Elsayed
Transesophageal ECHO in anesthesia lecture usama Elsayed Transesophageal ECHO in anesthesia lecture usama Elsayed
Transesophageal ECHO in anesthesia lecture usama Elsayed
 
TGA.pptx
TGA.pptxTGA.pptx
TGA.pptx
 
Echo views
Echo viewsEcho views
Echo views
 
TRANSESOPHAGEAL ECHOCARDIOGRAPHY.pptx
TRANSESOPHAGEAL ECHOCARDIOGRAPHY.pptxTRANSESOPHAGEAL ECHOCARDIOGRAPHY.pptx
TRANSESOPHAGEAL ECHOCARDIOGRAPHY.pptx
 
2d Transthoracic Echocardiographic views
2d  Transthoracic Echocardiographic views2d  Transthoracic Echocardiographic views
2d Transthoracic Echocardiographic views
 
Echocardiogram
EchocardiogramEchocardiogram
Echocardiogram
 
ECHO WINDOWS AND VIEWS.pptx
ECHO WINDOWS AND VIEWS.pptxECHO WINDOWS AND VIEWS.pptx
ECHO WINDOWS AND VIEWS.pptx
 
ECHO views and measurements-Dr. Razu.pptx
ECHO views and measurements-Dr. Razu.pptxECHO views and measurements-Dr. Razu.pptx
ECHO views and measurements-Dr. Razu.pptx
 
Transthoracic Echocardiogram, 3D, Doppler, TEE.pptx
Transthoracic Echocardiogram, 3D, Doppler, TEE.pptxTransthoracic Echocardiogram, 3D, Doppler, TEE.pptx
Transthoracic Echocardiogram, 3D, Doppler, TEE.pptx
 
Chapter 2: How to Image Echo Views
Chapter 2: How to Image Echo ViewsChapter 2: How to Image Echo Views
Chapter 2: How to Image Echo Views
 
Transesophageal echocardiography
Transesophageal echocardiographyTransesophageal echocardiography
Transesophageal echocardiography
 
Electrocardiographymain
ElectrocardiographymainElectrocardiographymain
Electrocardiographymain
 
Presentation 14 fetal Echo.pdf
Presentation 14 fetal Echo.pdfPresentation 14 fetal Echo.pdf
Presentation 14 fetal Echo.pdf
 

Mais de Malleswara rao Dangeti

Approach to coronary bifurcation lesions
Approach to coronary bifurcation lesionsApproach to coronary bifurcation lesions
Approach to coronary bifurcation lesionsMalleswara rao Dangeti
 
supraventricular tachycardia (SVT) with aberrancy
supraventricular tachycardia (SVT) with aberrancysupraventricular tachycardia (SVT) with aberrancy
supraventricular tachycardia (SVT) with aberrancyMalleswara rao Dangeti
 
LEADLESS PACEMAKER AND SUBCUTANEOUS ICD
LEADLESS PACEMAKER AND SUBCUTANEOUS ICDLEADLESS PACEMAKER AND SUBCUTANEOUS ICD
LEADLESS PACEMAKER AND SUBCUTANEOUS ICDMalleswara rao Dangeti
 
Right ventricle (RV) anatomy and functions
Right ventricle (RV) anatomy and functionsRight ventricle (RV) anatomy and functions
Right ventricle (RV) anatomy and functionsMalleswara rao Dangeti
 
QRS axis change during ventricualr tachycardia (VT)
QRS axis   change during ventricualr tachycardia (VT)QRS axis   change during ventricualr tachycardia (VT)
QRS axis change during ventricualr tachycardia (VT)Malleswara rao Dangeti
 
Pliability assessment,pre procedure evaluation-tricks in difficult pbmv
Pliability assessment,pre procedure evaluation-tricks in difficult pbmvPliability assessment,pre procedure evaluation-tricks in difficult pbmv
Pliability assessment,pre procedure evaluation-tricks in difficult pbmvMalleswara rao Dangeti
 
Management of VENTRICULAR TACHYCARDIA (VT)
Management of VENTRICULAR TACHYCARDIA (VT)Management of VENTRICULAR TACHYCARDIA (VT)
Management of VENTRICULAR TACHYCARDIA (VT)Malleswara rao Dangeti
 
FASCICULAR VENTRICULAR TACHYCARDIA( VT)
FASCICULAR VENTRICULAR TACHYCARDIA( VT)FASCICULAR VENTRICULAR TACHYCARDIA( VT)
FASCICULAR VENTRICULAR TACHYCARDIA( VT)Malleswara rao Dangeti
 

Mais de Malleswara rao Dangeti (20)

Genetics in cardiovascular system
Genetics in cardiovascular systemGenetics in cardiovascular system
Genetics in cardiovascular system
 
acute rheumatic fever
acute rheumatic feveracute rheumatic fever
acute rheumatic fever
 
fundamentals of pacemaker
fundamentals of pacemaker  fundamentals of pacemaker
fundamentals of pacemaker
 
Approach to coronary bifurcation lesions
Approach to coronary bifurcation lesionsApproach to coronary bifurcation lesions
Approach to coronary bifurcation lesions
 
Treadmill test (TMT)
Treadmill test (TMT)Treadmill test (TMT)
Treadmill test (TMT)
 
Trouble shoooting ICD AND CRT
Trouble shoooting ICD AND CRTTrouble shoooting ICD AND CRT
Trouble shoooting ICD AND CRT
 
supraventricular tachycardia (SVT) with aberrancy
supraventricular tachycardia (SVT) with aberrancysupraventricular tachycardia (SVT) with aberrancy
supraventricular tachycardia (SVT) with aberrancy
 
LEADLESS PACEMAKER AND SUBCUTANEOUS ICD
LEADLESS PACEMAKER AND SUBCUTANEOUS ICDLEADLESS PACEMAKER AND SUBCUTANEOUS ICD
LEADLESS PACEMAKER AND SUBCUTANEOUS ICD
 
SINOATRIAL (SA) node
SINOATRIAL (SA) node SINOATRIAL (SA) node
SINOATRIAL (SA) node
 
relative wall thickness
relative wall thicknessrelative wall thickness
relative wall thickness
 
Right ventricle (RV) anatomy and functions
Right ventricle (RV) anatomy and functionsRight ventricle (RV) anatomy and functions
Right ventricle (RV) anatomy and functions
 
QRS axis change during ventricualr tachycardia (VT)
QRS axis   change during ventricualr tachycardia (VT)QRS axis   change during ventricualr tachycardia (VT)
QRS axis change during ventricualr tachycardia (VT)
 
Pliability assessment,pre procedure evaluation-tricks in difficult pbmv
Pliability assessment,pre procedure evaluation-tricks in difficult pbmvPliability assessment,pre procedure evaluation-tricks in difficult pbmv
Pliability assessment,pre procedure evaluation-tricks in difficult pbmv
 
STEPP AMI
STEPP AMISTEPP AMI
STEPP AMI
 
Normal variants of heart structures
Normal variants of heart structuresNormal variants of heart structures
Normal variants of heart structures
 
Management of VENTRICULAR TACHYCARDIA (VT)
Management of VENTRICULAR TACHYCARDIA (VT)Management of VENTRICULAR TACHYCARDIA (VT)
Management of VENTRICULAR TACHYCARDIA (VT)
 
Low flow low gradient aortic stenosis
Low flow low gradient aortic stenosisLow flow low gradient aortic stenosis
Low flow low gradient aortic stenosis
 
Hyponatremia in heart failure
Hyponatremia in heart failure Hyponatremia in heart failure
Hyponatremia in heart failure
 
CORONARY SINUS
CORONARY SINUSCORONARY SINUS
CORONARY SINUS
 
FASCICULAR VENTRICULAR TACHYCARDIA( VT)
FASCICULAR VENTRICULAR TACHYCARDIA( VT)FASCICULAR VENTRICULAR TACHYCARDIA( VT)
FASCICULAR VENTRICULAR TACHYCARDIA( VT)
 

Último

Giftedness: Understanding Everyday Neurobiology for Self-Knowledge
Giftedness: Understanding Everyday Neurobiology for Self-KnowledgeGiftedness: Understanding Everyday Neurobiology for Self-Knowledge
Giftedness: Understanding Everyday Neurobiology for Self-Knowledgeassessoriafabianodea
 
epilepsy and status epilepticus for undergraduate.pptx
epilepsy and status epilepticus  for undergraduate.pptxepilepsy and status epilepticus  for undergraduate.pptx
epilepsy and status epilepticus for undergraduate.pptxMohamed Rizk Khodair
 
Presentation on General Anesthetics pdf.
Presentation on General Anesthetics pdf.Presentation on General Anesthetics pdf.
Presentation on General Anesthetics pdf.Prerana Jadhav
 
Nutrition of OCD for my Nutritional Neuroscience Class
Nutrition of OCD for my Nutritional Neuroscience ClassNutrition of OCD for my Nutritional Neuroscience Class
Nutrition of OCD for my Nutritional Neuroscience Classmanuelazg2001
 
Tans femoral Amputee : Prosthetics Knee Joints.pptx
Tans femoral Amputee : Prosthetics Knee Joints.pptxTans femoral Amputee : Prosthetics Knee Joints.pptx
Tans femoral Amputee : Prosthetics Knee Joints.pptxKezaiah S
 
Culture and Health Disorders Social change.pptx
Culture and Health Disorders Social change.pptxCulture and Health Disorders Social change.pptx
Culture and Health Disorders Social change.pptxDr. Dheeraj Kumar
 
Apiculture Chapter 1. Introduction 2.ppt
Apiculture Chapter 1. Introduction 2.pptApiculture Chapter 1. Introduction 2.ppt
Apiculture Chapter 1. Introduction 2.pptkedirjemalharun
 
Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...
Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...
Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...MehranMouzam
 
systemic bacteriology (7)............pptx
systemic bacteriology (7)............pptxsystemic bacteriology (7)............pptx
systemic bacteriology (7)............pptxEyobAlemu11
 
low cost antibiotic cement nail for infected non union.pptx
low cost antibiotic cement nail for infected non union.pptxlow cost antibiotic cement nail for infected non union.pptx
low cost antibiotic cement nail for infected non union.pptxdrashraf369
 
PERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptx
PERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptxPERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptx
PERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptxdrashraf369
 
maternal mortality and its causes and how to reduce maternal mortality
maternal mortality and its causes and how to reduce maternal mortalitymaternal mortality and its causes and how to reduce maternal mortality
maternal mortality and its causes and how to reduce maternal mortalityhardikdabas3
 
LUNG TUMORS AND ITS CLASSIFICATIONS.pdf
LUNG TUMORS AND ITS  CLASSIFICATIONS.pdfLUNG TUMORS AND ITS  CLASSIFICATIONS.pdf
LUNG TUMORS AND ITS CLASSIFICATIONS.pdfDolisha Warbi
 
Hematology and Immunology - Leukocytes Functions
Hematology and Immunology - Leukocytes FunctionsHematology and Immunology - Leukocytes Functions
Hematology and Immunology - Leukocytes FunctionsMedicoseAcademics
 
PNEUMOTHORAX AND ITS MANAGEMENTS.pdf
PNEUMOTHORAX   AND  ITS  MANAGEMENTS.pdfPNEUMOTHORAX   AND  ITS  MANAGEMENTS.pdf
PNEUMOTHORAX AND ITS MANAGEMENTS.pdfDolisha Warbi
 
Case Report Peripartum Cardiomyopathy.pptx
Case Report Peripartum Cardiomyopathy.pptxCase Report Peripartum Cardiomyopathy.pptx
Case Report Peripartum Cardiomyopathy.pptxNiranjan Chavan
 
VarSeq 2.6.0: Advancing Pharmacogenomics and Genomic Analysis
VarSeq 2.6.0: Advancing Pharmacogenomics and Genomic AnalysisVarSeq 2.6.0: Advancing Pharmacogenomics and Genomic Analysis
VarSeq 2.6.0: Advancing Pharmacogenomics and Genomic AnalysisGolden Helix
 
Presentation on Parasympathetic Nervous System
Presentation on Parasympathetic Nervous SystemPresentation on Parasympathetic Nervous System
Presentation on Parasympathetic Nervous SystemPrerana Jadhav
 
SWD (Short wave diathermy)- Physiotherapy.ppt
SWD (Short wave diathermy)- Physiotherapy.pptSWD (Short wave diathermy)- Physiotherapy.ppt
SWD (Short wave diathermy)- Physiotherapy.pptMumux Mirani
 
Radiation Dosimetry Parameters and Isodose Curves.pptx
Radiation Dosimetry Parameters and Isodose Curves.pptxRadiation Dosimetry Parameters and Isodose Curves.pptx
Radiation Dosimetry Parameters and Isodose Curves.pptxDr. Dheeraj Kumar
 

Último (20)

Giftedness: Understanding Everyday Neurobiology for Self-Knowledge
Giftedness: Understanding Everyday Neurobiology for Self-KnowledgeGiftedness: Understanding Everyday Neurobiology for Self-Knowledge
Giftedness: Understanding Everyday Neurobiology for Self-Knowledge
 
epilepsy and status epilepticus for undergraduate.pptx
epilepsy and status epilepticus  for undergraduate.pptxepilepsy and status epilepticus  for undergraduate.pptx
epilepsy and status epilepticus for undergraduate.pptx
 
Presentation on General Anesthetics pdf.
Presentation on General Anesthetics pdf.Presentation on General Anesthetics pdf.
Presentation on General Anesthetics pdf.
 
Nutrition of OCD for my Nutritional Neuroscience Class
Nutrition of OCD for my Nutritional Neuroscience ClassNutrition of OCD for my Nutritional Neuroscience Class
Nutrition of OCD for my Nutritional Neuroscience Class
 
Tans femoral Amputee : Prosthetics Knee Joints.pptx
Tans femoral Amputee : Prosthetics Knee Joints.pptxTans femoral Amputee : Prosthetics Knee Joints.pptx
Tans femoral Amputee : Prosthetics Knee Joints.pptx
 
Culture and Health Disorders Social change.pptx
Culture and Health Disorders Social change.pptxCulture and Health Disorders Social change.pptx
Culture and Health Disorders Social change.pptx
 
Apiculture Chapter 1. Introduction 2.ppt
Apiculture Chapter 1. Introduction 2.pptApiculture Chapter 1. Introduction 2.ppt
Apiculture Chapter 1. Introduction 2.ppt
 
Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...
Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...
Study on the Impact of FOCUS-PDCA Management Model on the Disinfection Qualit...
 
systemic bacteriology (7)............pptx
systemic bacteriology (7)............pptxsystemic bacteriology (7)............pptx
systemic bacteriology (7)............pptx
 
low cost antibiotic cement nail for infected non union.pptx
low cost antibiotic cement nail for infected non union.pptxlow cost antibiotic cement nail for infected non union.pptx
low cost antibiotic cement nail for infected non union.pptx
 
PERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptx
PERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptxPERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptx
PERFECT BUT PAINFUL TKR -ROLE OF SYNOVECTOMY.pptx
 
maternal mortality and its causes and how to reduce maternal mortality
maternal mortality and its causes and how to reduce maternal mortalitymaternal mortality and its causes and how to reduce maternal mortality
maternal mortality and its causes and how to reduce maternal mortality
 
LUNG TUMORS AND ITS CLASSIFICATIONS.pdf
LUNG TUMORS AND ITS  CLASSIFICATIONS.pdfLUNG TUMORS AND ITS  CLASSIFICATIONS.pdf
LUNG TUMORS AND ITS CLASSIFICATIONS.pdf
 
Hematology and Immunology - Leukocytes Functions
Hematology and Immunology - Leukocytes FunctionsHematology and Immunology - Leukocytes Functions
Hematology and Immunology - Leukocytes Functions
 
PNEUMOTHORAX AND ITS MANAGEMENTS.pdf
PNEUMOTHORAX   AND  ITS  MANAGEMENTS.pdfPNEUMOTHORAX   AND  ITS  MANAGEMENTS.pdf
PNEUMOTHORAX AND ITS MANAGEMENTS.pdf
 
Case Report Peripartum Cardiomyopathy.pptx
Case Report Peripartum Cardiomyopathy.pptxCase Report Peripartum Cardiomyopathy.pptx
Case Report Peripartum Cardiomyopathy.pptx
 
VarSeq 2.6.0: Advancing Pharmacogenomics and Genomic Analysis
VarSeq 2.6.0: Advancing Pharmacogenomics and Genomic AnalysisVarSeq 2.6.0: Advancing Pharmacogenomics and Genomic Analysis
VarSeq 2.6.0: Advancing Pharmacogenomics and Genomic Analysis
 
Presentation on Parasympathetic Nervous System
Presentation on Parasympathetic Nervous SystemPresentation on Parasympathetic Nervous System
Presentation on Parasympathetic Nervous System
 
SWD (Short wave diathermy)- Physiotherapy.ppt
SWD (Short wave diathermy)- Physiotherapy.pptSWD (Short wave diathermy)- Physiotherapy.ppt
SWD (Short wave diathermy)- Physiotherapy.ppt
 
Radiation Dosimetry Parameters and Isodose Curves.pptx
Radiation Dosimetry Parameters and Isodose Curves.pptxRadiation Dosimetry Parameters and Isodose Curves.pptx
Radiation Dosimetry Parameters and Isodose Curves.pptx
 

TEE VIEWS

  • 1.
  • 2.  Indications for TEE  Contraindications for TEE  Sedation and anesthesia  Probe insertion and manipulation  Comprehensive transesophageal echocardiographic imaging examination
  • 3.
  • 4.
  • 5. Probe Insertion Techniques  After adequate application of topical anesthetic, a bite block should be placed in the patient’s mouth before the administration of conscious sedation.  The patient is typically placed in the left lateral decubitus position, and the echocardiographer stands facing the patient on the left-hand side of the stretcher
  • 6. Four standard transducer positions within the esophagus and stomach and the associated imaging planes. Standard imaging plane levels (from the incisors ) •upper or high esophageal (25–28 cm) •mid-esophageal (29–33 cm) •gastroesophageal junction (34–37 cm) •transgastric (38–42 cm) •deep-transgastric (>42 cm)
  • 7.
  • 8. ME Five-Chamber View  After initially passing the probe into the esophagus, it is slowly advanced until the AVand LVoutflow tract come into view at a probe depth of about 30 cm.  Slight transducer angle manipulation (10 rotation)will allow image optimization of the AV and LVoutflow tract.  In this plane, the left atrium, right atrium, LV, right ventricle, MV,and TV will also be imaged.  This view allows visualization of the A2-A1 and P1-P2 scallops(from left to right on the imaging plane) of the MV and two of the three AV cusps.
  • 10. ME Four-Chamber View  From the ME five-chamber view, the probe is advanced slowly to a depth of about 30 to 35 cm until the MV is clearly seen.  Structures seen include the left atrium, right atrium, interatrial septum, LV, right ventricle, interventricular septum, MV (A3A2 and P2P1 scallops), and TV.  The ME four-chamber view is one of the most comprehensive views available for evaluating cardiac anatomy and function.
  • 11.  Turning the probe to the left (counterclockwise) allows imaging of primarily the left heart structures.  Turning the probe to the right (clockwise) allows imaging of primarily right heart structures.  Diagnostic Issues  Chamber enlargement and function  LV systolic function  MV pathology  TV pathology  Atrial septal defect (ASD Primum)  Pericardial effusion
  • 13. ME Mitral Commissural View  From the ME four-chamber view, rotating the transducer angle to between 50 and 70 will generate the ME mitral commissural view.  From this neutral probe orientation,  turning the probe leftward (counterclockwise) -- PML (P3P2P1).  Turning the probe rightward (clockwise ) ----AML (A3A2A1).  the anterolateral and posteromedial papillary muscles  Diagnostic Issues  LA: mass, thrombus  LV systolic function  MV pathology
  • 15. . ME Two-Chamber View  From the ME mitral commissural view, rotating the transducer angle to between 80 and 100 will generate the ME two-chamber view.  Structures seen include the left atrium, LA appendage, LV, and MV (P3-A3A2A1).  Diagnostic Issues  LAA: mass, thrombus  LV systolic function (inferior and anterior)  LV apex pathology  MV pathology
  • 17. ME LAX View  From the ME two-chamber view, the transducer angle is rotated to approximately 120 to 140 to image the ME LAX view.  Structures seen include the left atrium, LV, LVoutflow tract, AV, proximal ascending aorta, coronary sinus, and MV(P2-A2).  Diagnostic Issues  MV pathology  LV systolic function  IVS pathology (VSD)  LVOT pathology  AV pathology  Aortic root pathology
  • 19.  ME five chamber view ( A2 A1 P2P1) advance  ME four chamber view (A3 A2 P2 P1) rotate 50-70 degrees  ME MV commisural view (A1-3 P1-3) rotate 80-100  ME two chamber view (P3A3A2A1) rotate 120-140  ME LAX view ( P2 A2)
  • 21. ME AV LAX View  From the ME LAX view, slight withdrawal of the probe while maintaining a transducer angle of 120 to 140 results in the ME AV LAX view.  The anterior (far-field) AV cusp is the right coronary cusp  The posterior (near field) cusp can be the noncoronary cusp or the left coronary cusp, depending on the window  Diagnostic Issues  AV pathology  Aortic root dimensions  Aortic root pathology  LVOT pathology  MV anterior leaflet  Ventricular septal defect (VSD)
  • 22. ME AV LAX View
  • 23. ME Ascending Aorta LAX View  From the ME AV LAX view, withdrawal of the probe, typically with backward rotation to approximately 90 to 110, results in theME ascending aorta LAX view.  This view allows evaluation of the proximal ascending aorta.  The right pulmonary artery (PA) lies posterior to the ascending aorta in this view
  • 24. ME Ascending Aorta LAX View
  • 25. . ME Ascending Aorta SAX View  From the ME AV and ascending aorta view, backward transducer rotation to approximately 0 to 30 results in the ME ascending aorta SAX view.  In addition to the ascending aorta in SAX and the superior vena cava in SAX, the main PA and right lobar PA can be seen.  From this neutral probe orientation, turning the probe to the left (counterclockwise) allows imaging of the PA bifurcation.
  • 26. . ME Ascending Aorta SAX View
  • 27. ME Right Pulmonary Vein View  From the ME ascending aorta SAX view, advancing the probe and turning to the right (clockwise) will result in theME right pulmonary vein view.  The right pulmonary veins can also be imaged from the 90 to 110 view by first obtaining a ME bicaval view and turning the probe to the right (clockwise).  the left pulmonary veins may be imaged by turning the probe to the left (counterclockwise) just beyond the left atrial appendage.
  • 28. ME Right Pulmonary Vein View
  • 29.  ME LAX view ( 120-140*) withdrawal  ME AV LAX view withdraw& rotate 90-110* ME ascending aorta LAX view rotate 0-30*  ME ascending aorta SAX view ME Right PV view ME Left PV view Clockwise rotation Counterclockwise rotation
  • 30. ME AV SAX View  From the ME right pulmonary vein view, reposition the probe (turning to the left, counterclockwise) to center the aorta in the display and advance and rotate the transducer angle to between 25 and 45 to obtain the ME AV SAX view.  AV morphology and function can be evaluated from this view.  with a subtle degree of withdrawal, the left coronary artery and the right coronary artery can be imaged.  In addition to the AV, a portion of the superior LA, interatrial septum, and right atrium are imaged.
  • 31. ME AV SAX View
  • 32. ME RV Inflow-Outflow View  From the ME AV SAX view, slight advancement of the probe and rotating the transducer angle to 50 to 70 until the RVOT and PV appear in the display results in the ME RV inflow-outflow view.  Structures seen in the view include the left atrium, right atrium, interatrial septum, TV, RV , RVOT , PV, and proximal (main) PA.  Diagnostic Issues  Pulmonic valve pathology  Pulmonary artery pathology  RVOT pathology  TV pathology  Atrial septal defect (ASD secundum)  Ventricular septal defect (VSD)
  • 34. ME Modified Bicaval TV View  From the ME RV inflow-outflow view, maintaining a transducer angle of 50° to 70°, the probe is turned to the right (clockwise) until primarily the TV is centered in the view, resulting in the ME modified bicaval TV view.  The left atrium, right atrium, interatrial septum, inferior vena cava, and TV are imaged
  • 36. ME Bicaval View  From the ME modified bicaval TV view, the transducer angle is rotated forward to 90° to 110°, and the probe is turned to the right (clockwise) to obtain the ME bicaval view.  Imaged in this view are the left atrium, right atrium, inferior vena cava, superior vena cava, right atrial appendage, and interatrial septum. Diagnostic Issues  IAS: Atrial septal defect (ASD)  Mass  SVC/IVC flow  Venous catheters  Pacemaker wires  Venous cannula position (SVC/IVC)
  • 38. ME Right and Left Pulmonary Vein View  At a transducer angle of 90° to 110°, imaging of either the right or left pulmonary veins can be performed.  From the ME bicaval view, turning the probe further to the right (clockwise) will result in imaging of the right pulmonary vein.  Turning the probe to the left (counterclockwise) visualise ME left pulmonary vein view.
  • 39. ME Right and Left Pulmonary Vein View
  • 40. ME LA Appendage View  From the ME left pulmonary vein view (at a transducer angle of 90° to 110°), turning the probe to right (clockwise) with possible advancement and/or anteflexion of the probe will open the LA appendage for the ME LA appendage view.  Backward rotating from 90° to 0° while imaging the LA appendage and/or simultaneous multiplane imaging should be performed.  Color flow Doppler and pulsed-wave Doppler may be useful, particularly for assessment of emptying velocities.
  • 42.  ME right Pulmonary vein view reposition , advance ,rotate 25-45*  ME AV SAX view advance,rotate 50-70 degrees  ME RV inflow outflow view clockwise rotation  ME modified bicaval TV view rotate 90-110*  ME bicaval view advance ,clockwise rotation,anteflexion  ME LA appendage view
  • 43. Transgastric views most important transesophageal views best for evaluating left and right ventricular function commonly employed intra operative TEE to assess ejection fraction and wall motion post- operatively deep transgastric views are the best views to obtain accurate gradients across the aortic valve to assess the degree of AS or AR
  • 44. TG Basal SAX View  From the ME views and at a transducer angle of 0° to 20°, the probe is straightened and advanced into the stomach, and the probe is then anteflexed to obtain the TG basal SAX view.  This view demonstrates the typical SAX view or “fish mouth” appearance of the MV in the TG imaging plane with the anterior leaflet on the left of the display and the posterior leaflet on the right.  The medial commissure is in the near field, with the lateral commissure in the far field. Diagnostic Issues  MV: pathology, origin MR  LV: basal segment function  Ventricular septal defect (VSD)
  • 45. TG Basal SAX View
  • 46. TG Midpapillary SAX View  While maintaining contact with the gastric wall, the anteflexed probe for the TG basal SAX view can be relaxed to a more neutral position, and transducer angle should remain at 0° to 20°. to obtain the TG midpapillary SAX view.  This is the primary TG view for intraoperative monitoring of LV size and function because myocardium supplied by the left anterior descending, circumflex, and right coronary arteries can be seen simultaneously.  Turning the probe to the right from this view will typically image the mid-RV in SAX.
  • 48. TG Apical SAX View  From the TG midpapillary SAX view (0°-20°), the probe is advanced while maintaining contact with the gastric wall, to obtain the TG apical SAX view.  The RV apex is imaged from this view by turning to the right (clockwise).  This view allows evaluation of the apical segments of the left and right ventricles.
  • 50. TG RV Basal View  Returning to the TG basal SAX view (anteflexed, at a transducer angle of approximately 0° to 20°) by turning the probe toward the patient’s right (clockwise), the TG basal RV view can be seen.
  • 51. TG RV Basal View
  • 52. TG RV Inflow-Outflow View  From the TG basal RV view (transducer angle of 0° to 20°), maximal right flexion results in the TG RV inflow-outflow view.  In this view, typically the anterior and posterior leaflets of the TV are imaged, as well as the left and right cusps of the PV.
  • 54. Deep TG Five-Chamber View  From the TG RV inflow-outflow view (transducer angle of 0° to 20°), advancing the probe to the deep TG level, with anteflexion , results in the deep TG five- chamber view.  Because of parallel Doppler beam alignment with the LV outflow tract, AV, and proximal aortic root, color and spectral Doppler interrogation of the LV outflow tract and AV is possible.
  • 56. TG Two-Chamber View  The probe is returned to the TG midpapillary SAX view, and the transducer angle is rotated to approximately 90° to 110° to obtain the TG two-chamber view.  The anterior and inferior walls of the left ventricle are imaged in addition to the papillary muscles, chordae, and MV.  Diagnostic Issues  LV systolic function  MV subvalvular apparatus  MV pathology
  • 58. TG RV Inflow View `  From the TG two-chamber view (transducer angle of 90° to 110°), turning to the right (clockwise) will result in the TG RV inflow (or RV two-chamber) view.  The anterior and inferior walls of the right ventricle are imaged in addition to the papillary muscles, chordae, and TV  Diagnostic Issues  TV pathology  RV systolic function  Right atrial (RA) mass
  • 59. TG RV Inflow View
  • 60. TG LAX View  From the TG RV inflow view, turning to the left (counterclockwise) to return to the TG two-chamber view, then rotating the transducer angle to 120° to 140° will result in the TG LAX view.  inferolateral wall ,anterior septum , the LV outflow tract, AV, and proximal aorta are visualised .  Diagnostic Issues  MV: leaflets, subvalvular  LV systolic function  AV Doppler gradient  LVOT Doppler gradient  Ventricular septal defect (VSD)  Prosthetic AV function
  • 62. Descending Aorta SAX and Descending Aorta LAX Views  From the TG LAX view, the transducer angle is returned to 0° to 10° and the probe turned to the left (counterclockwise).  The SAX view of the aorta is obtained at a transducer angle of 0° to 10° , while the LAX view is obtained at a transducer angle of approximately 90° to 100° .  Diagnostic Issues  Aorta atherosclerosis  Aorta dissection  Aorta aneurysm  Left pleural effusion  AI severity PW Doppler  IABP position
  • 65.  ME View with transducer at 0-20* advance into stomach & antiflex  TG Basal SAX view probe in neutral position & advance  TG mid papillary view advance TE Apical SAX view rotate 90-110*  TG 2 Chamber view rotate 120-140*  TG LAX View  counterclockwise rotation 0-10* 90-100* descending aorta SAX view LAX view
  • 66. upper esophageal High esophageal views are helpful for evaluating the great vessels including the aortic root and coronary arteries, ascending aorta and the pulmonary artery
  • 67. UE Aortic Arch LAX View  While evaluating the descending aorta SAX view (transducer angle 0° to 10°) and withdrawing the probe, the aorta will eventually become elongated, and the left subclavian artery may be imaged, indicating the beginning of the distal aortic arch.  the aorta is positioned anterior to the esophagus, and thus the UE aortic arch LAX view is best imaged by then turning to the right (clockwise) so the probe faces anterior.  This allows imaging of the mid aortic arch  the left innominate vein is also seen. Diagnostic Issues  Aorta atherosclerosis  Aorta dissection  Aorta aneurysm
  • 68. UE Aortic Arch LAX View
  • 69. UE Aortic Arch SAX View  From the UE aortic arch LAX view, the transducer angle is rotated toward 70° to 90° to obtain the UE aortic arch SAX view. Diagnostic Issues  Aorta atherosclerosis  Aorta dissection  Aorta aneurysm  Pulmonic valve pathology  Patent ductus arteriosus (PDA)  Swan–Ganz catheter position
  • 70. UE Aortic Arch SAX View
  • 71. MITRAL VALVE  Calculation of mitral annulus diameter  ME four-chamber in mid-diastole (ASE guidelines) ME LAX and MV commissural views
  • 72. Aortic valve  LAX and AV SAX view (,AV cusp number, the length of the free edges of the AV cusps, and the area of the Av orifice can be measured.  The cusp adjacent to the atrial septum is the noncoronary cusp, the most anterior cusp is the right coronary cusp, and the other is the left coronary cusp
  • 73.  The ME AV LAX view (view #6) allows imaging of the basal portion,of the ventricular septum, LVoutflow tract, as well as AV, annulus, and aortic sinuses  Measurement of the LVoutflow tract should be performed in early to midsystole, and within 5 mm of the annulus.  The annulus is identified as the points of attachment of the AV cusps (or hinge point) and is normally between 1.8 and 2.5 cm.
  • 74. Pilmonary valve  The three PV cusps are named by their relative position to the AV.  the right and left cusps, correspondingto the right and left cusps of the AV. The third cusp is anterior or ‘‘opposite’’ cusp.  PV view  counterclockwise rotation from the ME ascending aorta LAX view as well as the ME ascending aortic SAX view .
  • 75.  TheME RV inflow-outflow view (view #11) allows visualization of  two of the leaflets (typically the left or right and anterior) and is a useful  screen for leaflet mobility, thickness, and regurgitation with 2D and  color Doppler imaging.
  • 76.  The TV is the largest and most apically positioned valve.  The TV complex is composed of three leaflets (anterior, posterior, and septal  The anterior leaflet is the longest radial leaflet, and the septal leaflet is the shortest.  ME four-chamber view --- the septal and anterior leaflets are typically imaged  TG basal RV view , TG RV inflow-outflow view and TG RV inflow view ---- posterior leaflet of the TV