Biomedical Engineering Reference
In-Depth Information
91. WL Straube and RM Arthur, “Theoretical estimation of the
temperature dependence of backscattered ultrasonic power
for noninvasive thermometry,” J Ultrasound in Med & Biol ,
vol. 20, pp. 915-922, 1994.
92. RA Sigelmann and JM Reid, “Analysis and measurements
of ultrasonic backscattering from an ensemble of scatterers
excited by sine wave bursts,” J Acoust Soc of Am , vol. 53, pp.
1351-1355, 1973.
93. M O'Donnell, JW Mimbs, and JG Miller, “Relationship
between collagen and ultrasonic backscatter in myocardial
tissue,” J Acoust Soc of Am , vol. 69, pp. 580-588, 1981.
94. FL Lizzi, M Greenebaum, EJ Feleppa, M Elbaum, and DJ
Coleman, “Theoretical framework for spectrum analysis in
ultrasonic tissue characterization,” J Acoust Soc of America ,
vol. 73, pp. 1366-1373, 1983.
95. EL Madsen, MF Insana, and JA Zagzebski, “Method of data
reduction for accurate determination of acoustic backscat-
ter coefficients,” J Acoust Soc Am , vol. 76, pp. 913-923, 1984.
96. JG Mottley and JG Miller, “Anisotropy of the ultrasonic back-
scatter of myocardial tissue: I. Theory and measurements in
v i t r o ,” J Acoust Soc of America , vol. 83, pp. 755-761, 1988.
97. KA Wear, MR Milunski, SA Wickline, JE Perez, BE Sobel,
and JG Miller, “Differentiation between acutely ischemic
myocardium and zones of completed infarction in dogs on
the basis of frequency-dependent backscatter,” J Acoust Soc
of Ama , vol. 85, no. 6, pp. 2634-2641, 1989.
98. X Chen, D Phillips, KQ Schwarz, JG Mottley, and KJ Parker,
“The measurement of backscatter coefficient from a broad-
band pulse-echo system: A new formulation,” IEEE Trans
on UFFC , vol. 44, pp. 515-525, 1997.
99. BK Hoffmeister, AK Wong, ED Verdonk, SA Wickline, and
JG Miller, “Comparison of the anisotropy of apparent inte-
grated ultrasonic backscatter from fixed human tendon and
fixed human myocardium,” J Acoust Soc of America , vol. 97,
pp. 1307-1313, 1995.
100. BD de Senneville, B Quesson, and CTW Moonen, “Magnetic
resonance temperature imaging,” Int J of Hyperthermia , vol.
21, pp. 515-531, 2005.
101. J Gellermann, W Wlodarczyk, A Feussner, H Fahling,
J Nadobny, B Hildebrandt, R Felix, and P Wust, “Methods
and potentials of magnetic resonance imaging for monitor-
ing radiofrequency hyperthermia in a hybrid system,” Int
J of Hyperthermia , vol. 21, pp. 497-513, 2005.
102. D Basu, 3D Temperature Imaging Using Ultrasonic Backscatter
Energy During Non-Uniform Tissue Heating , PhD the-
sis, Department of Electrical and Systems Engineering,
Washington University, St. Louis, MO, USA, 2010.
103. ED Verdonk, BK Hoffmeister, SA Wickline, and JG Miller,
“Anisotropy of the slope of ultrasonic attenuation in forma-
lin fixed human myocardium,” J Acoust Soc of America , vol.
99, pp. 3837-3843, 1996.
104. M O'Donnell, JW Mimbs, and JM Miller, “The relationship
between collagen and ultrasonic attenuation in myocardial
tissue,” J Acoust Soc Am , vol. 65, pp. 512-517, 1979.
105. JG Mottley and JG Miller, “Anisotropy of the ultrasonic
attenuation in soft tissues: Measurements in vitro ,” J Acoust
Soc of America , vol. 88, pp. 1203-1210, 1990.
106. R Kuc, “Bounds on estimating the acoustic attenuation of
small tissue regions from reflected ultrasound,” Proceedings
of the IEEE , vol. 73, pp. 1159, July 1985.
107. RM Arthur and KV Gurumurthy, “A single-pole model for
the propagation of ultrasound in soft tissue,” J Acoust Soc
Am , vol. 77, pp. 1589-1597, April 1985.
108. AE Worthington, J Trachtenberg, and MD Sherar,
“Ultrasound properties of human prostate tissue during
heating,” J Ultrasound in Med & Biol , vol. 28, pp. 1311-1318,
2002.
109. RL Clarke, NL Bush, and GR ter Haar, “The changes in
acoustic attenuation due to in vitro heating,” J Ultrasound in
Med & Biol , vol. 29, pp. 127-135, 2003.
110. U Techavipoo, T Varghese, Q Chen, TA Stiles, JA
Zagzebski, and GR Frank, “Temperature dependence of
ultrasonic propagation speed and attenuation in excised
canine liver tissue measured using transmitted and
reflected pulses,” J Acoust Soc Am , vol. 115, no. 5, pp.
2859-2865, 2004.
111. TC Robinson and PP Lele, “An analysis of lesion develop-
ment in the brain and in plastics by high intensity focused
ultrasound at low-megahertz frequencies,” J Acoust Soc Am ,
vol. 5, pp. 1333-1351, 1972.
112. H-L Liu, M-L Li, P-H Tsui, M-S Lin, S-M Huang, and
J Bai, “A unified approach to combine temperature estima-
tion and elastography for thermal lesion determination in
focused ultrasound thermal therapy,” Phys Med Biol , vol. 56,
pp. 169-186, 2011.
113. K-C Ju and H-L Liu, “Zero-crossing tracking technique
for noninvasive ultrasonic temperature estimation,”
J Ultrasound Med , vol. 29, pp. 1607-1615, 2010.
114. KK Shung, MB Smith, and B Tsui, Principles of Medical
Imaging , Academic Press, San Diego, CA, 1992, pp. 90-99.
115. PM Morse and KU Ingard, Theoretical Acoustics , McGraw-
Hill, New York, 1968, p. 427.
116. V Krishnan, Probability and Random Processes , Wiley-
Interscience, Hoboken, NJ, 2006.
117. HH Pennes, “Analysis of tissue and arterial temperatures in
the resting human forearm,” J Applied Physiology , vol. 1, pp.
93-122, 1948.
118. T Drizdal, M Vrba, M Cifra, P Togni, and J Vrba, “Feasibility
study of superficial hyperthermia treatment planning using
comsol multiphysics,” Microwave Techniques , vol. 1, pp. 1-3,
2008.
119. Z Wang, JC Lin, W Mao, W LIu, MB Smith, and CM
Collins, “SAR and temperature: Simulations and compari-
son to regulatory limits for MRI,” J Mag Res Imaging , vol. 26,
pp. 437-441, 2007.
120. EG Moros, PM Corry, and CG Orton, “Point/counterpoint:
Thermoradiotherapy is underutilized for the treatment of
cancer,” Med Phys , vol. 34, no. 1, pp. 1-4, 2007.
Search WWH ::




Custom Search