Sources of error in monitoring high speed testing of vascular grafts

Biomedical Sciences Instrumentation

Volumn 34, Issue , 1997, Pages 240-245

  Conti, James C ^a,b   Strope, Elaine R ^b   Price, Karen ^b  

^a MISSOURI STATE UNIVERSITY   (United States)

^b Dynatek Dalta Scientific Instruments   (United States)

Author keywords

Accelerated; Compliance; Durability; Fatigue; Frequency; Grafts; Mechanical; Radial; Testing; Tubing

Indexed keywords

BLOOD VESSELS; DURABILITY; ERROR ANALYSIS; FATIGUE OF MATERIALS; HYDRODYNAMICS; IMPLANTS (SURGICAL); LASER DIAGNOSTICS; LOAD TESTING; ULTRASONIC APPLICATIONS; VIBRATIONS (MECHANICAL);

HIGH SPEED TESTING;

GRAFTS;

BLOOD VESSEL GRAFT; COMPLIANCE (PHYSICAL); CONFERENCE PAPER; DYNAMICS; ERROR; GRAFT PATENCY; MONITORING; STENT;

BIOMECHANICS; BLOOD VESSEL PROSTHESIS; BLOOD VESSELS; COMPLIANCE; HUMANS; MATERIALS TESTING; RHEOLOGY;

EID: 0031399303     PISSN: 00678856     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Conference Paper

References (22)

1. Kinley, C. E., and Marble, A. E., Compliance. J. Cardiovasc. Surg., 21, 163-170 (1980).
2. Clark, R. E., Apostolou, S., and Kardos, J. L., Mismatch of Mechanical Properties as a Cause of Arterial Prosthesis Thrombosis. Surg. Forum, 27, 208-217 (1976).
3. Gonza E. R., Mason, W. F., Marble, A. E., and others, Necessity for Elastic Properties in Synthetic Arterial Grafts. Can. J. Surg., 17, 176-179 (1974).
4. Lyman, D. J., Fazzio, F. J., Voorhees, H., and others, Compliance as a Factor Effecting the Patency of Copolyurethane Vascular Grafts. J. Biomed. Master. Res., 12, 337-339 (1978).
5. Abbott, W. M., and Bouchier-Hayes, D. J., The Role of Mechanical Properties in Graft Design. In: Graft Materials in Vascular Surgery. Edited by H. Dardik. Miami: Symposia Specialists, Inc., 59 (1978).
6. Baird, R. N., Kidson, I. G., L'Italien, J. G., and Abbott, M. W., Dynamic Compliance of Arterial Grafts. Am. J. Physiol., 2, 568-572 (1977).
7. Bergel, D. H., The Static Elastic Properties of the Arterial Wall. J. Physiol. (London), 156, 445 (1961).
8. Bergel, D. H., The Dynamic Elastic Properties of the Arterial Wall. J. Physiol. (London), 156, 448 (1961).
9. Patel, D. J., De Freitan, F. M., Freenfield, J. R., and Fry, D. L., Relation of Radius to Pressure Along the Aorta in Living Dogs. J. Appl. Physiol, 18, 1111 (1963).
10. Paterson, L. H. Jensen, R. E. and Parnell, J., Mechanical Properties of Arteries In Vivo. Circulation Res., 8, 622 (1960).
11. Walden, R., L'Italien, G. J., Megerman, J., and Abbott, W. M., Matched Elastic Properties and Successful Arterial Grafting. Arch. Surg., 115, 1166-1169 (1980).
12. Gow, B. S., and Taylor, G., Measurement of Viscoelastic Properties of Arteries in the Living Dog, Circulatory Research, 23, 111 (1968).
13. Gow, B. S., An Electrical Caliper for the Measurement of Pulsatile Arterial Diameter In Vivo. J. Appl. Physiol, 21, 1122 (1960).
14. Gotoh, F., Muramatsu, F., Fukuuchi, Y., Okaysu, H., Tanaka, K., Suzuki N., and Kobari, M., Video Camera Method for Simultaneous Measurement of Blood Flow Velocity and Pial Vessel Diameter. J. Cereb. Blood Flow Metab., 2, 421-428 (1982).
15. Assmann, R. and Henrich, H., A Video-Angiometer for Simultaneous and Continuous Measurement of Inner and Outer Vessel Diameters. Pflugers Arch., 376, 263-266 (1978).
16. Halpern, W., Mongeon, S. A., and Root, D. T., Stress, Tension and Myogenic Aspects of Small Isolated Extraparenchymal Rat Arteries. In: Smooth Muscle Contraction, edited by N.L. Stephens. New York: Dekker, 427-456 (1984).
17. Intaglietta, M. and Tompkins, W. R., On-Line Measurement of Microvascular Dimensions by Television Microscopy. J. Appl. Physiol., 32, 546-551 (1972).
18. Wiederhielm, C. A., Continuous Recording of Arteriolar Dimensions with a Television Microscope. J. Appl. Physiol., 18, 1041-1042 (1963).
19. Halpern, W., Osol, G., Coy, G. S., Mechanical Behavior of Pressurized In Vitro Prearteriolar Vessels Determined with a Video System. Annals of Biomedical Engineering, 12, 463-479 (1984).
20. Conti, J. C., Strope, E. R., Rohde, D. R. and Greisler, H. P., A New Technique to Determine Vascular Compliance In Vivo, National Heart Lung and Blood Institute Contractors Meeting. Louisville, KY, 1989
21. Bozzi, R., Conti, J. C., Soldani, G., Spence, L., Strope, E., and Withrow, D., Relating the Frequency Dependent Radial Compliance to the Tensile Modulus of Polyurethane and Latex Vascular Grafts. Transactions 5th World Biomaterials Congress, 434, U2 (1996).
22. Conti, J. C., Strope, E. R., Rohde, D. J., and Spence, L. D., Frequency Dependent Radial Compliance of Latex Tubing. Biomedical Sciences Instrumentation, 33, 524-529 (1997).