Basic principles of thermal dosimetry and thermal thresholds for tissue damage from hyperthermia

被引:743
作者
Dewhirst, MW
Viglianti, BL
Lora-Michiels, M
Hanson, M
Hoopes, PJ
机构
[1] Duke Univ, Med Ctr, Dept Radiat Oncol, Durham, NC 27710 USA
[2] Dartmouth Coll, Dept Radiat Oncol, Lebanon, NH 03756 USA
关键词
thermal dosimetry; hyperthermia; damage threshold; arrhenius analysis; isoeffect; normal tissue tolerance;
D O I
10.1080/0265673031000119006
中图分类号
R73 [肿瘤学];
学科分类号
100214 ;
摘要
This paper is one of several in this Special Issue of the International Journal of Hyperthermia that discusses the current state of knowledge about the human health risks of hyperthermia. This special issue emanated from a workshop sponsored by the World Health Organization in the Spring of 2002 on this topic. It is anticipated that these papers will help to establish guidelines for human exposure to conditions leading to hyperthermia. This comprehensive review of the literature makes it clear that much more work needs to be done to clarify what the thresholds for thermal damage are in humans. This review summarizes the basic principles that govern the relationships between thermal exposure (temperature and time of exposure) and thermal damage, with an emphasis on normal tissue effects. Methods for converting one time-temperature combination to a time at a standardized temperature are provided as well as a detailed discussion about the underlying assumptions that go into these calculations. There are few in vivo papers examining the type and extent of damage that occurs in the lower temperature range for hyperthermic exposures (e.g. 39-42degreesC). Therefore, it is clear that estimation of thermal dose to effect at these thermal exposures is less precise in that temperature range. In addition, there are virtually no data that directly relate to the thermal sensitivity of human tissues. Thus, establishment of guidelines for human exposure based on the data provided must be done with significant caution. There is detailed review and presentation of thermal thresholds for tissue damage (based on what is detectable in vivo). The data are normalized using thermal dosimetric concepts. Tables are included in an Appendix Database which compile published data for thresholds of thermal damage in a variety of tissues and species. This database is available by request (contact MWD or PJH), but not included in this manuscript for brevity. All of the studies reported are for single acute thermal exposures. Except for brain function and physiology (as detailed in this issue by Sharma et al) one notes the critical lack of publications examining effects of chronic thermal exposures as might be encountered in occupational hazards. This review also does not include information on the embryo, which is covered in detail elsewhere in this volume (see article by Edwards et al.) as well as in a recent review on this subject, which focuses on thermal dose.
引用
收藏
页码:267 / 294
页数:28
相关论文
共 29 条
[21]   Modeling thermal damage in skin from 2000-nm laser irradiation [J].
Chen, Bo ;
Thomsen, Sharon L. ;
Thomas, Robert J. ;
Welch, Ashley J. .
JOURNAL OF BIOMEDICAL OPTICS, 2006, 11 (06)
[22]   Quantifying the relationship between biofilm reduction and thermal tissue damage on metal implants exposed to alternating magnetic fields [J].
Prasad, Bibin ;
Shaikh, Sumbul ;
Saini, Reshu ;
Wang, Qi ;
Zadoo, Serena ;
Sadaphal, Varun ;
Greenberg, David E. ;
Chopra, Rajiv .
INTERNATIONAL JOURNAL OF HYPERTHERMIA, 2022, 39 (01) :713-724
[23]   Using phase change material nanoparticles for thermal storage to protect healthy tissues by hyperthermia method assisted by a magnetic field for cancer tissue ablation [J].
Sarkesh, Hadi Soltani ;
Abdollahi, Seyyed Amirreza ;
Atigh, Habib Bazli Sefidan ;
Talati, Faramarz ;
Faramarzi, Saman ;
Soltani, Madjid .
JOURNAL OF ENERGY STORAGE, 2024, 95
[24]   EVALUATION OF THERMAL-DAMAGE AFTER HYPERTHERMIA ON MURINE EXPERIMENTAL TUMOR BY P-31-NMR SPECTROSCOPY - CORRELATION BETWEEN ATP AND GROWTH DELAY [J].
KITADA, N ;
AKAGI, K ;
TANAKA, Y ;
FRITZZIEROTH, B .
JOURNAL OF RADIATION RESEARCH, 1994, 35 (02) :65-73
[25]   Thermal and damage data from multiple microsecond pulse trains at 532 nm in an in vitro retinal model [J].
Denton, Michael L. ;
Tijerina, Amanda J. ;
Hoffman, Aaron ;
Clark, Clifton D., III ;
Noojin, Gary D. ;
Rickman, John M. ;
Castellanos, Cherry C. ;
Shingledecker, Aurora D. ;
Boukhris, Sarah J. ;
Thomas, Robert J. ;
Rockwell, Benjamin A. .
OPTICAL INTERACTIONS WITH TISSUE AND CELLS XXV; AND TERAHERTZ FOR BIOMEDICAL APPLICATIONS, 2014, 8941
[26]   Potential applicability of clinical hyperthermia using a Thermotron-RF8 as assessed from thermal distribution in an agar phantom containing hydroxyapatite [J].
Imamura, M ;
Seki, T ;
Kunieda, K ;
Nakatani, S ;
Tamai, T ;
Inoue, K ;
Imamura, M ;
Nagata, K ;
Tanaka, Y ;
Obiya, Y ;
Harada, K .
ONCOLOGY REPORTS, 1996, 3 (06) :1017-1019
[27]   Comparison of radiological and pathohistological response to neoadjuvant chemotherapy combined with regional hyperthermia (RHT) and study of response dependence on the applied thermal parameters in patients with soft tissue sarcomas (STS) [J].
Stahl, Robert ;
Wang, Tungte ;
Lindner, Lars H. ;
Abdel-Rahman, Sultan ;
Santl, Margareta ;
Reiser, Maximilian F. ;
Issels, Rolf D. .
INTERNATIONAL JOURNAL OF HYPERTHERMIA, 2009, 25 (04) :289-298
[28]   Characterization of thermal damage of skin tissue subjected to moving heat source in the purview of dual phase lag theory with memory-dependent derivative [J].
Kumar, Ravi ;
Tiwari, Rakhi ;
Singhal, Abhinav ;
Mondal, Sudip .
WAVES IN RANDOM AND COMPLEX MEDIA, 2021, :3510-3527
[29]   Relationships between thermal dose parameters and the efficacy of definitive chemoradiotherapy plus regional hyperthermia in the treatment of locally advanced cervical cancer: data from a multicentre randomised clinical trial [J].
Ohguri, Takayuki ;
Harima, Yoko ;
Imada, Hajime ;
Sakurai, Hideyuki ;
Ohno, Tatsuya ;
Hiraki, Yoshiyuki ;
Tuji, Koh ;
Tanaka, Masahiro ;
Terashima, Hiromi .
INTERNATIONAL JOURNAL OF HYPERTHERMIA, 2018, 34 (04) :461-468