Experimental strain analysis of the high pressure strain gauge pressure transducer and verification by using a finite element method

2001 ◽  
Vol 12 (3) ◽  
pp. 335-344 ◽  
Author(s):  
M H Orhan ◽  
Ç Dogan ◽  
H Kocabas ◽  
G Tepehan
Keyword(s):  
Finite Element Method ◽  
Finite Element ◽  
High Pressure ◽  
Strain Gauge ◽  
Pressure Transducer ◽  
Strain Analysis ◽  
Gauge Pressure ◽  
Experimental Strain ◽  
Element Method

Elastic Strain Analysis of Foil Strain Gauge by the Finite Element Method

1977 ◽  
Vol 43 (376) ◽  
pp. 4409-4418 ◽  
Author(s):  
Koshiro OI ◽  
Keiko SUZUKI ◽  
Syunji TAKAHASHI
Keyword(s):  
Finite Element Method ◽  
Finite Element ◽  
Strain Gauge ◽  
Elastic Strain ◽  
Strain Analysis ◽  
The Finite Element Method ◽  
Element Method

scholarly journals Stress and strain analysis from dynamic loads of mechanical hand using finite element method

2018 ◽  
Vol 352 ◽  
pp. 012017 ◽  
Author(s):  
Iskandar Hasanuddin ◽  
Husaini ◽  
M. Syahril Anwar ◽  
B.Z. Sandy Yudha ◽  
Hasan Akhyar
Keyword(s):  
Finite Element Method ◽  
Finite Element ◽  
Strain Analysis ◽  
Dynamic Loads ◽  
Stress And Strain ◽  
Mechanical Hand ◽  
Element Method

Nonhomogeneous Ventricular Wall Strain: Analysis of Errors and Accuracy

1993 ◽  
Vol 115 (4B) ◽  
pp. 497-502 ◽  
Author(s):  
Lewis K. Waldman ◽  
Andrew D. McCulloch
Keyword(s):  
Finite Element Method ◽  
Finite Element ◽  
Measurement Errors ◽  
Three Dimensional ◽  
Strain Analysis ◽  
Noninvasive Methods ◽  
Single Plane ◽  
Cardiac Deformation ◽  
Cardiac Strain ◽  
Element Method

Nonhomogeneous distributions of strains are simulated and utilized to determine two potential errors in the measurement of cardiac strains. First, the error associated with the use of single-plane imaging of myocardial markers is examined. We found that this error ranges from small to large values depending on the assumed variation in stretch. If variations in stretch are not accompanied by substantial regional changes in ventricular radius, the associated error tends to be quite small. However, if the nonuniform stretch field is a result of substantial variations in local curvature from their reference values, large errors in stretch and strain occur. For canine hearts with circumferential radii of 2 to 4 cm, these errors in stretch may be as great as 30 percent or more. Moreover, gradients in stretch may be over- or underestimated by as much as 100 percent. In the second part of this analysis, the influence of random measurement errors in the coordinate positions of markers on strains computed from them is studied. Arrays of markers covering about 16 cm2 of ventricular epicardium are assumed and nonuniform stretches imposed. The reference and deformed positions of the markers are perturbed with Gaussian noise with a standard deviation of 0.1 mm, and then strains are computed using either homogeneous strain theory or a nonhomogeneous finite element method. For the strain distributions prescribed, it is found that the finite element method reduces the error resulting from noise by about 50 percent over most of the region. Accurate measurements of cardiac strain distributions are needed for correlation with and validation of realistic three-dimensional stress analyses of the heart. Moreover, with the advent of increasingly effective noninvasive methods to measure cardiac deformation such as magnetic resonance imaging, the use of nonhomogeneous strain analysis to determine more accurate strain distributions has increasing clinical significance.

Stress Analysis of Conical Shell Skirt Support for High Pressure Vessel Using Finite Element Method

2009 ◽  
Vol 5 (4) ◽  
pp. 355-362
Author(s):  
K. Tamil Mannan ◽  
Rakesh Saxena ◽  
R. Murugavel ◽  
P.L. Sah
Keyword(s):  
Finite Element Method ◽  
Finite Element ◽  
High Pressure ◽  
Stress Analysis ◽  
Pressure Vessel ◽  
Conical Shell ◽  
High Pressure Vessel ◽  
Element Method
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