Content deleted Content added
m Journal cites, added 1 DOI using AWB (11760) |
m Journal cites, templated 2 journal cites using AWB (11760) |
||
Line 5:
<!--- Don't mess with this line! --->
<!--- Write your article below this line --->
Numerical manipulation of Doppler parameters obtain during routine [[Echocardiography]] has been extensively utilized to non-invasively estimate intra-cardiac pressures, in many cases removing the need for invasive cardiac catheterization.<ref>{{cite journal |pmid=3366997 | volume=11 | title=Prediction of the severity of aortic stenosis by Doppler aortic valve area determination: prospective Doppler-catheterization correlation in 100 patients | year=1988 | journal=J. Am. Coll. Cardiol. | pages=1227–34}}</ref>
Echocardiography uses ultrasound to create real-time anatomic images of the [[heart]] and its structures. [[Doppler echocardiography]] utilizes the Doppler principle to estimate intracardiac velocities. Via the modified [[Bernoulli's principle|Bernoulli equation]], velocity is routinely converted to pressure gradient for use in clinical cardiology decision making.<ref>http://www.wikiecho.org/wiki/Aortic_stenosis</ref>
A broad discipline of mathematical modeling of intracardiac velocity parameters for pulmonary circulation and aortic Doppler for [[aortic stenosis]] have been investigated. [[Diastolic heart failure|Diasatolic dysfunction]] algorithms use complex combinations of these numeric models to estimate intra-cardiac filling pressures.<ref>{{cite journal | last1 = Scalia | first1 = Gregory M.
==See also==
|