Non-invasive microwave multifrequency radiometry used in microwave hyperthermia for bidimensional reconstruction of temperature patterns

References

• Bahl I. L., Stuchly S. S., Stuchly M. A. A new microstrip slot radiator for medical applications. Electronics Letters 1980; 16(19)731–732
   Google Scholar
• Bini M. G., Ignesti A., Millanta L., Olmi R., Rubino N., Vanni R. The polyacrylamide as a phantom material for electromagnetic hyperthermia studies. IEEE Transactions on Biomedical Engineering 1984; BME-31(3)317–322
   Google Scholar
• Chandrasekhar S. Radiative Transfer. Oxford University Press, Oxford 1950
   Google Scholar
• Chive M., Plancot M., Giaux G., Prevost B. Microwave hyperthermia controlled by microwave radiometry: technical aspects and clinical results. Journal of Microwave Power 1984; 19(4)233–241
   PubMedGoogle Scholar
• Chive M. Use of microwave radiometry for hyperthermia monitoring and as a basis for thermal dosimetry. Methods of Hyperthemia Control, vol. 3. Series Clinical Thermology, subseries Thermotherapy, M. Gautherie. Springer-Verlag, Heidelberg 1990; 113–128
   Google Scholar
• Chive M., Moschetto Y., Sozanski J. P., Rohart J., De Cordoue Rohart S., Plancot M. 915 MHz hyperthermia treatments with temperature control by microwave radiometry: technical software and clinical results (phase 11). 10th ESHO Conference on Oncologic Hyperthermia. September, 21–231989. AmsterdamThe Netherlands
   Google Scholar
• De Wagter C. Computer simulation for local temperature control during microwave-induced hyperthermia. Journal of Microwave Power 1985; 20: 31–42
   Google Scholar
• Dubois L., Fabre J.-J., Chive M. Thermal profile reconstruction in the steady state during microwave hyperthermia based on microwave radiometry measurements: bidimensional aspects. 11th Annual Conference of IEEE EMBS, SeattleUSA, November, 1989
   Google Scholar
• Fabre J. J., Leroy Y. Thermal noise emission of a lossy material for a TEM propagation. Electronic Letters 1981; 17: 376–377
   Google Scholar
• Giaux G., Delannoy J., Prevost B., Delvallee D., Vergier J. F., Chive M., Plancot M., Ledee R. (1988) Oncologic microwave hyperthermia controlled by non invasive radiometry associated to radiotherapy: technical aspects and clinical results. Proceedings of the 5th International Symposium on Hyperthermia and Oncology, KyotoJapan, August, 291988. vol. 1: 529–530
   Google Scholar
• Giaux G., Delannoy J., Chive M., Ledee R., Plancot M. Microwave hyperthermia controlled by microwaved radiometry in oncology. IEEE-EMBS, 9th Annual Conference, BostonUSA, November, 1987
   Google Scholar
• Guerquin-Kern J.-L. Hyperthermie locale par micro-ondes en thérapeutique cancérologique: étude de I'instrumentation et de protocoles d'essais cliniques par simulations théorique et expérimentale des interactions ondes électromagnétiquesltissus biologiques. 1980, Thèse de Doctorat de I'Université de Strasbourg, June
   Google Scholar
• Lédée R., Playez E., Chive M., Plancot M., Ben Naoum K. Microstrip microslot multi-applicator for microwave hyperthermia and radiometry. Proceedings, IEEE-EMBS, 8th Annual Conference, Fort WorthUSA, November, 7–101986
   Google Scholar
• Lédée R., Chive M. Les applicateurs en structure plaquée: conception performances et applications à I'hyperthermie microonde contrôlée par radiométrie microonde. Innovative Techniques in Biological Medicine 1988; 9: 63–68, Special no. 2
   Google Scholar
• Morten Knudsen. Estimation of tissue blood flow from hyperthermia treatment data. International Jouenal of Hyperthermia 1989; 5(5)653–661
   PubMedGoogle Scholar
• Nachman M., Turgeon G. Heating pattern in a multi-layered material exposed to microwaves. IEEE Transactions on Microwave and Techniques 1984; MlT-32(5)547–552
   Google Scholar
• Plancot M., Prevost B., Fabre J. J., Chive M., Moschetto Y., Giaux G. Thermal dosimetry based on radiometry in multilayered media. Proceedings of IEEE-EMBS, 8th Annual Conference, Fort WorthUSA, November, 1986, 1429–1431
   Google Scholar
• Plancot M., Prevost B., Chive M., Fabre J. J., Lédée R., Giaux G. A new method for thermal dosimetry in microwave hyperthermia using microwave radiometry for temperature control. International Journal of Hyperthermia 1987; 3(1)9–19
   PubMed Web of Science ®Google Scholar
• Ringeisen V., Chive M., Toutain S. Applicator for supplying radiofrequency energy to and from an object. US patent 569, 1984, 400, 9 January, USA
   Google Scholar
• Schepps J. L., Foster K. R. The UHF and microwave dielectric properties of normal and tumour tissues: variation in dielectric properties with tissue water content. Physics in Medicine and Biology 1980; 25(6)1149–1159
   PubMed Web of Science ®Google Scholar
• Song C. W., Lokshina A., Patten J. R., Levitt S. H. Implication of blood flow in hyperthermia treatment of tumors. IEEE Transactions on Biomedical Engineering 1984; BME-31(1)9–16
   Web of Science ®Google Scholar
• Strohbehn J. W., Trembly B. S., Douple E. B. Blood flow effects on the temperature distributions from an invasive microwave antenna array used in cancer therapy. IEEE Transactions on Biomedical Engineering 1982; BME-29(9)649–661
   Google Scholar
• Stuchly M. A., Stuchly S. S. Dielectric properties of biological substances-tabulated. Journal of Microwave Power 1980; 1980: 19–20
   Google Scholar
• Wang Y. X. Slot line coupler for medical applications. Electronics Letters 1984; 20(22)939–940
   Google Scholar