Simulations of adaptive temperature control with self-focused hyperthermia system for tumor treatment

Ultrasonics

Volumn 53, Issue 1, 2013, Pages 171-177

  Hu, Jiwen ^a,b   Ding, Yajun ^b   Qian, Shengyou ^b   Tang, Xiangde ^c  

^a UNIVERSITY OF SOUTH CHINA   (China)

^b HUNAN NORMAL UNIVERSITY   (China)

^c Hengyang Normal College   (China)

Author keywords

Simulation; Temperature control; Tumor treatment; Ultrasound hyperthermia

Indexed keywords

ABSORPTION COEFFICIENTS; ACOUSTIC POWER; ADAPTIVE ABILITY; CONTROL METHODS; CONTROL PROBLEMS; CONTROL TEMPERATURES; CURATIVE EFFECTS; DIFFERENT FREQUENCY; FOCAL LENGTHS; HEALTHY TISSUES; RAPID RESPONSE; RECURSIVE ALGORITHMS; SIMULATION; SPHERICAL TRANSDUCERS; TEMPERATURE ELEVATION; TIME FACTORS; TREATMENT TIME; TUMOR TISSUES; TUMOR TREATMENT; ULTRASOUND THERAPY; VARIABLE PARAMETERS;

ACOUSTIC FIELDS; RECURSIVE FUNCTIONS; TEMPERATURE CONTROL; TUMORS;

HYPERTHERMIA THERAPY;

ALGORITHM; ARTICLE; COMPUTER SIMULATION; HUMAN; HYPERTHERMIC THERAPY; INSTRUMENTATION; NEOPLASM; TEMPERATURE; TRANSDUCER; ULTRASOUND THERAPY;

ALGORITHMS; COMPUTER SIMULATION; HUMANS; HYPERTHERMIA, INDUCED; NEOPLASMS; TEMPERATURE; TRANSDUCERS; ULTRASONIC THERAPY;

EID: 84869143472     PISSN: 0041624X     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ultras.2012.05.005     Document Type: Article

References (33)

1. G. ter Haar Ultrasound focal beam surgery Ultrasound Med. Biol. 21 1995 1089 1100
2. G. ter Haar Acoustic surgery Phys. Today 2001 29 34
3. N.B. Smith, N.K. Merrilees, M. Dahleh, and K. Hynynen Control system for an MRI compatible intracavitary ultrasound array for thermal treatment of prostate disease Int. J. Hypertherm. 17 2001 271 282
4. A. Vanne, and K. Hynynen MRI feedback temperature control for focused ultrasound surgery Phys Med Biol. 48 2003 31 43
5. M. Mattingly, R.B. Roemer, and S. Devasia Exact temperature tracking for hyperthermia: a model-based approach IEEE Trans. Contr. Syst. Technol. 8 2000 979 992
6. Y.Y. Chen, W.L. Lin, H.L. Liou, J.Y. Yen, and M.J. Shieh Self-tuning fuzzy logic control of ultrasound hyperthermia with reference temperature based on objective functions Med. Phys. 26 1999 825 833
7. D. Arora, and M. Skliar Model-predictive control of hyperthermia treatments IEEE Trans. Bio-Med. Eng. 49 2002 629 639
8. L. Sun, J. Schiano, N.B. Smith, Novel adaptive control methods for ultrasound hyperthermia treatment for prostate disease, in: IEEE 2003 Ultrasonics Symposium, Honolulu, October, 2003, pp. 1274-1277.
9. L. Sun, C.M. Collins, and J.L. Schiano Adaptive real-time closed-loop temperature control for ultrasound hyperthermia using magnetic resonance thermometry Concepts Mag. Reson. Part B 27B 2005 51 63
10. J.W. Hu, S.Y. Qian, and Y.J. Ding Research on adaptive temperature control in sound field induced by self-focused concave spherical transducer Ultrasonics 50 2010 628 633
11. C.A. Damianou, N.T. Sanghvi, F.J. Fry, and R. Maass-Moreno Dependence of ultrasonic attenuation and absorption in dog soft tissues on temperature and thermal dose J. Acoust. Soc. Am. 102 1997 628 634
12. U. Techavipoo, T. Varghese, Q. Chen, T.A. Stiles, J.A. Zagzebski, and G.R. Frank Temperature dependence of ultrasonic propagation speed and attenuation in excised canine liver tissue measured using transmitted and reflected pulses J. Acoust. Soc. Am. 115 2004 2859 2865
13. E.A. Zabolotskaya, and R.V. Khokhlov Quasi-plane waves in the nonlinear acoustics of confined beams Sov. Phys. Acoust. 15 1969 35 40
14. V.P. Kuznetsov Equations of nonlinear acoustics Sov. Phys. Acoust. 16 1971 467 470
15. J. Wójcika, A. Nowickia, and P.A. Lewinb Wave envelopes method for description of nonlinear acoustic wave propagation Ultrasonics 44 2006 310 329
16. J. Wójcik Conservation of energy and absorption in acoustic fields for linear and nonlinear propagation J. Acoust. Soc. Am. 104 1998 2654 2663
17. V.P. Kuznetsov Equations of nonlinear acoustics Akust. Zh. 16 1970 548 553
18. T. Kamakura, T. Ishiwata, and K. Matsuda Model equation for strongly focused finite-amplitude sound beams J. Acoust. Soc. Am. 107 2000 3035 3046
19. C. Flammer Spheroidal Wave Functions 1957 Stanford University Press Stanford p. 7
20. M.F. Hamilton, and C.L. Morfey Model equations M.F. Hamilton, D.T. Blackstock, Nonlinear Acoustics 1998 Academic CA 45 64
21. H.H. Pennes Analysis of tissue and arterial blood temperature in the resting human forearm J. Appl. Phys. 1 1948 93 122
22. M. Yoshida, and S. Matsummoto Controller design for parabolic distributed parameter systems using finite integral transform techniques J. Proc. Cont. 6 1996 359 366
23. F.P. Incropera, and D.P. Dewitt Introduction to Heat Transfer 1985 John Wiley & Sons p. 427
24. G.T. Haar, and C. Coussios High intensity focused ultrasound: physical principles and devices Int. J. Hypertherm. 23 2007 89 104
25. K. Hynynen, and D.K. Edwards Temperature measurements during ultrasound hyperthermia Med. Phys. 16 1989 618 626
26. J.P. Gore, L.X. Xu, Thermal imaging for biological and medical diagnostics, in: Biomedical Photonics Handbook, CRC Press, 2003, p. 17 (Chapter 17).
27. Z.J. Liu, S.M. Lobo, and S. Humphries Radiofrequency tumor ablation: insight into improved efficacy using computer modeling AJR 184 2005 1347 1352
28. F. Wu, Z.B. Wang, and Y.D. Cao "Wide local ablation" of localized breast cancer using high intensity focused ultrasound J. Surg. Oncol. 96 2007 130 136
29. F. Orsi, L. Zhang, and P. Arnone High-intensity focused ultrasound ablation: effective and safe therapy for solid tumors in difficult locations AJR Am. J. Roentgenol. 195 2010 W245 52
30. G. ter Haar, I. Rivens, L. Chen, and S. Riddler High intensity focused ultrasound for the treatment of rat tumors Phys. Med. Biol. 36 1991 1495 1501
31. G. ter Haar High intensity focused ultrasound Semin. Laparosc. Surg. 8 2001 77 89
32. V.R. Singh Ultrasound hyperthermia control system for deep-seated tumours: ex vivo study of excised tumours, modeling of thermal profile and future nanoengineering aspects IRBM 29 2008 326 336
33. Kung-Shan Cheng, Vadim Stakhursky, and Oana I. Craciunescu Fast temperature optimization of multi-source hyperthermia applicators with reduced-order modeling of 'virtual sources' Phys. Med. Biol. 53 2008 1619 1635