Ultrasonic Hyperthermia

M. H. Seegenschmiedt, P. Fessenden and C.C. Vernon (1995) “Thermo-radiotherapy and thermo-chemotherapy”, Vol. 1: Biology, Physiology and Physics, SpringerGoogle Scholar

G.S. Kino (1987) “Acoustic Waves: devices, imaging, and analog signal processing” Prentice Hall, IncGoogle Scholar

M.H. Lente, A.L. Zanin, D. Garcia, L. Leija, A. Vera, H. Calas and H. Moreno (2006) “Field induced piezoelectric transducer for generation of controlled diffraction ultrasonic field” in Proceeding of IEEE Ultrasonic Symposium, pp. 2210-2213Google Scholar

G. González, A. Azbaid, L. Leija, A. Ramos, X. Rami, J.L. San Emeterio and E. Moreno (2002) “Experimental evaluation of some narrow-band ultrasonic transducers as therapy applicators” in Forum Acusticum Sevilla, Spain. PACS Reference 43.35-43.38. ISBN: 84-87985-06-8Google Scholar

P.N.T. Well (1977) “Biomedical ultrasound” Academic PressGoogle Scholar

S.A. Goos, R.L. Johnson and F. Dunn (1978) “Comprehensive compilation of empirical ultrasonic properties of mammalian tissues” J. Acoustical Soc. Am. 64: 423-457CrossRefGoogle Scholar

S.A. Goos, R.L. Johnson and F. Dunn (1980) “Compilation of empirical ultrasonic properties of mammalian tissues. II” J. Acoust. Soc. Am. 68: 93-108CrossRefGoogle Scholar

S.A. Goos, L.A. Frizzell and F. Dunn (1979) “Ultrasonic absorption and attenuation of high frequency sound in mammalian tissues” Ultrasound Med. Biol. 5: 181-186CrossRefGoogle Scholar

D.P. Anhalt et al. (1995) “Patterns of changes of tumor temperatures during clinical hyperthermia: implications for treatment planning, evaluation and control” Int. J. Hyperthermia 11: 425-36CrossRefGoogle Scholar

M. Vázquez, A. Ramos, L. Leija and A. Vera (2006) “Noninvasive temperature estimation in oncology hyperthermia using phase changes in pulse-echo signals” Jpn. J. Appl. Phys. 45: 7991-7998CrossRefGoogle Scholar

J.W. Hunt (1987) “Principle of ultrasound used for hyperthermia” NATO ASI Series E: No. 127, Martinus Nijhoff Publisheers, BostonGoogle Scholar

B.D. Steinberg (1976) “Principles of aperture and array system design” John Wiley, New YorkGoogle Scholar

E.S. Ebbini and C.A. Cain (1991) “Experimental evaluation of a prototype cylindrical section ultrasound hyperthermia phased-array applicator” IEEE Trans. Ultrasonics Ferroelectrics Frequency Control 38: 510-520CrossRefGoogle Scholar

E.S. Ebbini and C.A. Cain (1991) “A spherical section ultrasound phased array applicator for deep localized hyperthermia” IEEE Trans. Ultrasonic Ferroelectrics Frequency Control 38: 634-643CrossRefGoogle Scholar

E.S. Ebbini, S.I. Umemura, M. Ibbini and C. Cain (1988) “A cylindrical-section ultrasound phased array applicator for hyperthermia cancer therapy” IEEE Trans. Ultrasonic, Ferroelectrics and Frequency Control 35: 561-572CrossRefGoogle Scholar

M.S. Ibbini and C.A. Cain (1990) “The concentric-ring array for ultrasound hyperthermia: combined mechanical and electrical scanning” Int. J. Hyperthermia 6: 401-419CrossRefGoogle Scholar

P.J. Benkeser, I.A. Frizzel, K.B. Ocheltree and C.A. Cain (1987) “A tapered phased array ultrasound transducer for hyperthermia treatment” IEEE. Trans. Ultrasonic Ferroelectrics and Frequency Control 34: 446-453CrossRefGoogle Scholar

S. Umemura and C.A. Cain (1989) “The sector-vortex phased array: acoustic field synthesis for hyperthermia” IEEE Trans. Ultrasonic. Ferroelectrics. Frequency Control 36: 249-257CrossRefGoogle Scholar

J.Y. Chapelon et al. (1993) “The feasibility of tissue ablation using high intensity electronically focused ultrasound” in Proceedings of IEEE Ultrasonic Symposium 2: 1211-1214Google Scholar

A. Gelet et al. (1996) “Treatment of prostate cancer with transrectal focused ultrasound: early clinical experience” Eur. Urol. 29: 174-183Google Scholar

E.B. Hutchinson and K. Hynynen (1996) “Intracavitary ultrasound paced arrays for noninvasive prostate surgery” IEEE. Trans. Ultrasonic Ferroelectrics and Frequency Control 43: 1032-1042CrossRefGoogle Scholar

E.B. Hutchinson et al. (1996) “Design and optimization of an aperiodic ultrasound paced array for intracavitary prostate thermal therapies” Med. Phys. 23: 767-776CrossRefGoogle Scholar

M.T. Buchanan and K. Hynynen (1994) “The design and evaluation of an intracavitary ultrasound phased array for hyperthermia” IEEE Trans Biomed Eng. 41: 1178-1187CrossRefGoogle Scholar

C. Diederich and K. Hynynen (1991) “The feasibility of using electrically focused ultrasound arrays to induce deep hyperthermia via body cavities” IEEE Trans. Ultrasonic Ferroelectrics and Frequency Control 38: 207-219CrossRefGoogle Scholar

“Determination of efficient ultrasonic patterns for safe therapy by control of distributed pulsed radiation” in Pulsets, Cyted international cooperative project, vol. I, II and III, ISBN: 90-4054-2-7, (2002-2005)Google Scholar

J.J.W. Lagendijk (1992) “Treatment planning and modelling in hyperthermia: a task group report of the European society for hyperthermic oncology” in Tor Vergata Medical Physics Monograph SeriesGoogle Scholar

E.P. Papadakis (1999) “Ultrasonic Instruments and Devices: Reference for a Modern Instrumentation, Techniques, and Technology” Academic PressGoogle Scholar