Abstract
What is the purpose of writing another chapter, or book for that matter, on hyperthermia principles involving temperature models and treatment planning? The answer is that the field is constantly changing as new technologies appear and refinements of current technologies occur. Additional mathematical models for thermal modeling have been developed since prior books or chapters have been published, with many of these now en compassing three-dimensional (3-D) calculations. Also, practical 3-D noninvasive thermal imaging systems are being developed which will be a boon to temperature control during hyperthermia treatments.
This is a preview of subscription content, log in via an institution.
Buying options
Tax calculation will be finalised at checkout
Purchases are for personal use only
Learn about institutional subscriptionsPreview
Unable to display preview. Download preview PDF.
References
Babbs CF, Fearnot NE, Marchosky JA, Moran EJ, Jones JT, Plantenga TD (1990) Theoretical basis for controlling minimal tumor temperature during interstitial conductive heat therapy. IEEE Trans Biomed Eng 37: 662–672
Barrett AH, Myers PC (1985) Basic principles and applications of microwave thermography. In: Larson LE, Jacobi JH (eds) Medical applications of microwave imaging. IEEE, New York, pp 41–46
Brezovich I A, Atkinson WJ, Chakraborty DP (1984) Temperature distributions in tumor models heated by selfregulating nickel-copper alloy thermoseeds. Med Phys 11: 145–152
Camart JC, Morganti F, Fabre JJ, Chive M (1991) Microwave interstitial hyperthermia controlled by microwave radiometry: modeling of the temperature increasing versus time. In: Nagel JH, Smith WM (eds) Proceedings of the International Conference of IEEE Engineering in Medicine and Biology Society. IEEE, New York, pp. 991–992
Chen MM, Holmes KR (1980) Microvascular contributions in tissue heat transfer. Ann NY Acad Sci 335: 137–150
Chen ZP, Miller WH, Roemer RB, Cetas TC (1990) Errors between 2-and 3-dimensional thermal model predictions of hyperthermia treatments. Int J Hyperthermia 6: 175–191
Chin RB, Stauffer PR (1991) Treatment planning for ferromagnetic seed heating. Int J Radiat Oncol Biol Phys 21: 431–439
Clegg ST, Roemer RB, Cetas TC (1985) Estimation of complete temperature fields from measured transient temperatures. Int J Hyperthermia 1: 265–286
Conway J (1987) Electrical impedance tomography for thermal modeling of hyperthermic treatment: an assessment using in-vitro and in-vivo measurements. Clin Phys Physiol Meas [Suppl A] 8: 141–146
Cravalho EG, Fox LR, Kan JC (1980) The application of the bioheat equation to the design of thermal protocols for local hyperthermia. Ann NY Acad Sci 335: 86–97
Crezee J, Lagendijk JJW (1990) Experimental verification of bioheat transfer theories: measurement of temperature profiles around large artificial vessels in perfused tissue. Phys Med Biol 35: 905–923
Deford JP, Babbs CF, Patel UH, Bleyer MW, Marchosky JA, Moran CJ (1991) Effective estimation and computer control of minimum tumor temperature during conductive interstitital hyperthermia. Int J Hyperthermia 7: 441–453
Divrik AM, Roemer RB, Cetas TC (1984) Inference of complete tissue temperature fields from a few measured temperatures: an unconstrained optmization method. IEEE Trans Biomed Eng 31: 150–160
Dudar TE, Jain RK (1984) Differential response of normal and tumor microcirculation to hyperthermia. Cancer Res 44: 605–612
Emami B, Stauffer P, Dewhirst MW et al. (1991) RTOG quality assurance guidelines for interstitial hyperthermia. Int J Radiat Biol Oncol Phys 20: 1117–1124
Endrich B, Reinhol HS, Gross JF, Intaglietta M (1979) Tissue perfusion inhomogeneity during early tumor growth in rats. J Natl Cancer Inst 62: 387–396
Eppert V, Trembly BS, Richter HJ (1991) Air cooling for an interstitial microwave hyperthermia antenna: theory and experiment. IEEE Trans Biomed Eng 38: 450–460
Furse CM, Iskander MF (1989) Three dimensional electromagnetic power deposition in tumors with interstitial antenna arrays. IEEE Trans Biomed Eng 36: 977–986
Gentile DB, Gori F, Leoncini M (1991) Electromagnetic and thermal models of a water-cooled dipole radiating in a biological tissue. IEEE Trans Biomed Eng 38: 98–103
Griffiths H, Ahmed A (1987) Applied potential tomography for non-invasive temperature mapping and hyperthermia. Clin Phys Physiol Meas [Suppl A] 8: 147–153
Hall AS, Prior MV, Hand JW, Young IR, Dickinson RJ (1990) Observation by MR imaging of in-vivo temperature changes induced by radiofrequency hyperthermia. J Comput Assist Tomogr 14: 430–436
Iskander MF, Tumeh AM (1989) Design optimization for interstitial antennas. IEEE Trans Biomed Eng 36: 236–247
Iskander MF, Tumeh AM, Furse CM (1990) Evaluation and optimization of the electromagnetic performance of interstitial antennas for hyperthermia. Int J Radiat Oncol Biol Phys 18: 895–902
Joines WT, Shrivastava S, Jirtle R (1989) A comparison using tissue electric properties and temperature rise to determine relative absorption of microwave power in malignant tissue. Med Phys 16: 840–844
Jones KM, Mechling JA, Strohbehn JW, Trembly BS (1989) Theoretical and experimental SAR distributions for interstitial dipole antenna arrays used in hyperthermia. IEEE Trans Microwave Theory Tech 37: 1200–1209
King RWP, Trembly BS, Strohbehn JW (1983) The electromagnetic field of an insulated antenna in a conducting or dielectric medium. IEEE Trans Microwave Theory Tech 31: 574–583
Mantyla MJ, Toivanen JT, Pitkanen MA, Rekonen AH (1982) Radiation-induced changes in regional blood flow in human tumors. Int J Radiat Oncol Biol Phys 8: 1711–1717
Mechling JA, Strohbehn JW (1986) A theoretical comparison of the temperature distributions produced by three interstitial hyperthermia systems. Int J Radiat Oncol Biol Phys 12: 2137–2149
Mechling JA, Strohbehn JW (1992) Three dimensional theoretical SAR and temperature distributions created in brain tissue by 915 and 2450 MHz dipole antenna arrays with varying insertion depths. Int J Hyperthermia (in press)
Mechling JA, Strohbehn JW, France LJ (1991a) A theoretical evaluation of the performance of the Dartmouth IMAAH system to heat cylindrical and ellipsoidal tumor models. Int J Hyperthermia 7: 465–483
Mechling JA, Strohbehn JW, Ryan TP (1991b) Threedimensional theoretical temperature distributions produced by 915 MHz dipole antenna arrays with varying insertion depths in muscle tissue. Int J Radiat Oncol Biol Phys 22: 131–138
Mooibroek J, Lagendijk JJW (1991) A fast and simple algorithm for the calculation of convective heat transfer by large vessels in 3-dimensional inhomogeneous tissue. IEEE Trans Biomed Eng 38: 490–501
Ocheltree KP, Frizzell LA (1987) Determination of power deposition patterns for localized hyperthermia: a steady-state analysis. Int J Hyperthermia 3: 269–279
Ocheltree KP, Frizzell LA (1988) Determination of power deposition patterns for localized hyperthermia: a transient analysis. Int J Hyperthermia 4: 281–296
Osterhout WJV (1922) Injury, recovery and death in relation to conductivity and permeability. Lippincott, Philadelphia
Patel UH, Deford UA, Babbs CF (1991), Computer-aided design and evaluation of novel catheters for conductive interstitial hyperthermia. Med Biol Eng Comput 29: 25–33
Paulsen KD, Moskowitz MJ, Ryan TP (1991) A combined invasive-non invasive conductivity profile reconstruction approach for thermal imaging in hyperthermia. In: Nagel JH, Smith WM (eds) Proceedings of the International Conference of IEEE Engineering in Medicine and Biology Society. IEEE, New York, pp 323–324
Pennes HH (1948) Analysis of tissue and arterial blood temperatures in the resting human forearm. J Appl Phys 1: 93–122
Plancot M, Prevost B, Chive M, Fabre JJ, Ladee R, Giaux G (1987) A new method for thermal dosimetry in microwave hyperthermia using microwave radiometry for temperature control. Int J Hyperthermia 3: 9–19
Prior MV (1991) Comparative study of RF-LCF and hot-sources interstitial hyperthermia techniques. Int J Hyperthermia 7: 131–140
Reinhold HS, Endrich B (1986) Tumor microcirculation as a target for hyperthermia. Int J Hyperthermia 2: 111–137
Roemer RB (1990) Thermal dosimetry. In: Gautherie M (ed) Clinical thermology, thermal dosimetry and treatment planning. Springer, Berlin Heidelberg New York, pp 119–214
Roemer RB (1991) Optimal power deposition in hyperthermia. I. The treatment goal: the ideal temperature distribution: the role of large blood vessels. Int J Hyperthermia 7: 317–341
Ryan TP (1991a) Techniques for heating brain tumors with implantable microwave antennas. In: Heiter GL (ed) Proceedings of IEEE MTT-S International Microwave Symposium, vol 2. IEEE, New York, pp. 791–794
Ryan TP (1991b) Comparison of six microwave antennas for hyperthermia treatment of cancer: SAR results for single antennas and arrays. Int J Radiat Oncol Biol Phys 21: 403–413
Ryan TP, Mechling JA, Strohbehn JW (1990) Absorbed power deposition for various insertion depths for 915 MHz interstitial dipole antenna arrays: experiment versus theory. Int J Radiat Oncol Biol Phys 19: 377–387
Ryan TP, Moskowitz MJ, Paulsen KD (1991) The Dartmouth electrical impedance tomography system for thermal imaging. In: Nagel JH, Smith WM (eds) Proceedings of the International Conference of IEEE Engineering in Medicine and Biology Society. IEEE, New York, pp 321–322
Ryan TP, Hoopes PJ, Jonsson E, Heaney J (1992) Use of a water-cooled microwave applicator for transurethral prostate heating: techniques for in-vivo temperature analysis. In: Gerner EW (ed) Hyperthermic oncology, vol 1. ICHO, Tucson, p 267
Schepps JL, Foster KR (1980) The UHF and microwave dielectric properties of normal and tumor tissues: variation in dielectric properties with tissue water content. Phys Med Biol 25: 1149–1159
Schreier K, Budihna M, Lesnicar H et al. (1990) Preliminary studies of interstitial hyperthermia using hot water. Int J Hyperthermia 6: 431–444
Seegenschmidt MH, Sauer R, Fietkau R, Karlsson UL, Brady LW (1990) Primary advanced and local recurrent head and neck tumors, effective management with interstitial thermal radiation therapy. Radiology 176: 267–274
Sekins KM, Emery AF, Lehmann JF, MacDougall JA (1982) Determination of perfusion field during local hyperthermia with the aid of finite element thermal models. J Bi-omech Eng 104: 272–279
Song CW, Kang MS, Rhee JG, Levitt SL (1980) Effective hyperthermia on vasculature function in normal and neoplastic tissues. Ann NY Acad Sci 335: 35–47
Song CW, Lokshina A, Rhee JG, Patten M, Levitt SH (1984) Implication of blood flow in hyperthermic treatment of tumors. IEEE Trans Biomed Engin 31: 9–16
Stauffer PR, Cetas TC, Fletcher AM, Deyoung DW, Dewhirst MW, Oleson JR, Roemer RB (1984) Observations on the use of ferromagnetic implants for inducing hyperthermia. IEEE Trans Biomed Engin 31: 76–90
Strohbehn JW (1983) Temperature distributions for RF electrode hyperthermia systems: theoretical predictions. Int J Radiat Oncol Biol Phys 9: 1655–1667
Strohbehn JW (1987) Interstitial techniques for hyperthermia. In: Field SB, Franconi C (eds) Physics and technology of hyperthermia. Martinus Nijhoff, Boston, pp 211–239
Strohbehn JW (1991) An engineer looks at hyperthermia. In: Dewey WC, Edington M, Fry RJM, Hall EJ, Whitmore GF (eds) Proceedings of the Ninth International Radiation Research Meeting, vol 2. Academic, San Diego, pp 14–25
Strohbehn JW, Roemer RB (1984) A survey of computer simulation of hyperthermia techniques. IEEE Trans Biomed Eng 31: 136–149
Strohbehn JW, Trembly BS, Douple EB (1982) Blood flow effects on the temperature distributions from an invasive microwave antenna array used in cancer therapy. IEEE Trans Biomed Engin 29: 649–661
Tomikawa W, Numata M, Yamada H, Nakamura H (1988) Measurement of internal temperature distribution using ultrasonic CT -in case of eccentric heat source existence. Acoust Soc Jpn 2: 777–778
Tompkins DT, Partington BP, Steeves RA, Bartholow SD, Paliwal BR (1992) Effect of implant variables on temperatures achieved during ferromagnetic hyperthermia. Int J Hyperthermia 8: 241–251
Trembly BS (1985) The effects of driving frequency and antenna length on power deposition within a microwave antenna array used for hyperthermia. IEEE Trans Biomed Eng 32: 152–157
Trembly BS, Ryan TP (1992) Review of interstitial microwave hyperthermia techniques. In: Gerner EW (ed) Hyperthermia oncology, vol 2. ICHO, Tucson (in press)
Trembly BS, Wilson AH, Sullivan MJ, Stein AD, Wong TZ, Strohbehn JW (1986) Control of the SAR pattern within an interstitial microwave array through a variation of antenna driving phase. IEEE Trans Microwave Theory Tech 34: 568–571
Trembly BS, Wilson AH, Havard JM, Sabatakakis K, Strohbehn JW (1988) Comparison of power deposition by inphase 433 MHz and phase-modulated 915 MHz interstitial antenna array hyperthermia systems. IEEE Trans Microwave Theory Tech 36: 908–916
Trembly BS, Douple EB, Hoopes PJ (1991) The effect of air cooling on the radial temperature distribution of a single microwave hyperthermia antenna in-vivo. Int J Hyperthermia 7: 343–354
Tumeh AM, Iskander MF (1989) Performance comparison of available interstitial antennas for microwave hyperthermia. IEEE Trans Microwave Theory Tech 37: 1126–1133
Weinbaum S, Jiji LM (1985) A new simplified bioheat equation for the effect of blood flow on local average tissue temperature. J Biomech Eng 107: 131–139
Wong TZ, Mechling JA, Jones EL, Strohbehn JW (1988) Transient finite element analysis of thermal models used to estimate SAR and blood flow in the homogeneously and non-homogeneously perfused tumor models. Int j Hyperthermia 4: 571–592
Zhang Y, Samulski TV, Joines WT, Mattiello J, Levin RL, LeBihan D (1992) On the accuracy of non-invasive thermometry using molecular diffusion magnetic imaging. Int J Hyperthermia 8: 263–274
Zhu XL, Gandhi OP (1988) Design of RF needle applicators for optimum SAR distributions in irregularly shaped tumors. IEEE Trans Biomed Eng 35: 382–388
Author information
Authors and Affiliations
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 1993 Springer-Verlag Berlin Heidelberg
About this chapter
Cite this chapter
Ryan, T.P. (1993). Methods of Thermal Modeling and Their Impact on Interstitial Hyperthermia Treatment Planning. In: Seegenschmiedt, M.H., Sauer, R. (eds) Interstitial and Intracavitary Thermoradiotherapy. Medical Radiology. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-84801-8_13
Download citation
DOI: https://doi.org/10.1007/978-3-642-84801-8_13
Publisher Name: Springer, Berlin, Heidelberg
Print ISBN: 978-3-642-84803-2
Online ISBN: 978-3-642-84801-8
eBook Packages: Springer Book Archive