James Haim I. Bicher

James Haim I. Bicher

Dr. James Bicher at his desk
Born May 12, 1937 (1937-05-12) (age 74)
San Cristobal, Santa Fe, Argentina
Profession Radiation Oncologist

James Haim I. Bicher, M.D. (born May 12, 1937 in San Cristobal, Santa Fe, Argentina) is an American radiation oncologist. He is a pioneer in the clinical use of Hyperthermia combined with low dose (protracted) radiation therapy (thermoradiotherapy). He is a founder and past president of ISOTT,[1] North American Hyperthermia Group, and the American Society of Clinical Hyperthermic Oncology. Dr. Bicher was a student of Nobel Prize winner Bernardo Alberto Houssay, and one of the pioneer contributors[2] to the basic principles that allowed later development of Plavix.

Dr. Bicher is the founder and a director of Bicher Cancer Institute, one of the largest Hyperthermic research and clinic treatment centers in the US.[3] Prior to this role his career included the following positions: Chief of Hyperthermic Clinic at Western Tumor Medical Group in Van Nuys, California, Director of NonIonizing Radiation Cancer Treatment Center at Henry Ford Hospital in Detroit, Michigan, and Associate Chief of Department of Radiation Medicine at Roswell Park Cancer Institute in Buffalo, New York.

He currently serves as the North American Vice-President of the International Clinical Hyperthermia Society [4] and Senior Consultant at the Beritashvili Institute of Physiology, Georgian Academy of Sciences, Georgia.

One of James Bicher, MD latest and more infuencial papers, THERMORADIOTHERAPY WITH CURATIVE INTENT BREAST, HEAD AND NECK AND PROSTATE TUMORS, was published in the German Journal of Hyperthermia,[5] This scientific paper shows that Hyperthermia therapy[6] potentiates or increases the effectiveness of Radiation Therapy[7]. The introduction of this paper also explains that prospective randomized Hyperthermia clinical trials[8] in the 1990's, showed the effectiveness of Hyperthermia combined with low dose radiation not only on superficial cancer tumors but also in deeper tumors,[9][10][11] when these cancer tumors are effectively heated. The addition of heat in the form of Hyperthermia Therapy, approximately doubles the effectiveness of Radiation Therapy, but also the fact that Hyperthermia Therapy increases the tumor oxygenation, makes hypoxic cancer tumors, such as sarcomas or glioblastomas more susceptible to thermoradiotherapy [12] [13](hyperthermia combined with radiation)[14].

References

  1. ^ Bruley, Duane Frederick (2008). "ISOTT: Roots, Founding and Beyond". Oxygen Transport to Tissue XXIX. Advances In Experimental Medicine And Biology. 614. pp. 1–8. doi:10.1007/978-0-387-74911-2_1. ISBN 978-0-387-74910-5. 
  2. ^ Bicher HI: Blood Cell Aggregation in Thrombotic Processes, Springfield, C. C. Thomas, 1972
  3. ^ DBpedia, Bicher Cancer Institute
  4. ^ ICHS Officers, International Clinical Hyperthermia Society
  5. ^ Bicher, Ham; Al-Bussam, Nazar (2006). "Thermoradiotherapy with curative intent - Breast, head, neck and prostate tumors". Deutsche Zeitschrift für Onkologie 38 (3): 116–22. doi:10.1055/s-2006-952049. 
  6. ^ Hyperthermia Therapy, Wikipedia
  7. ^ Radiation Therapy for Cancer, National Cancer Institute
  8. ^ Bicher, HI; Wolfstein, RS (1990). "Clinical use of regional hyperthermia". Advances in experimental medicine and biology 267: 1–20. PMID 2088027. 
  9. ^ Bicher, HI; Wolfstein, RS (1990). "Local hyperthermia for deep tumors". Advances in experimental medicine and biology 267: 411–22. PMID 2088061. 
  10. ^ Bicher, HI; Wolfstein, RS (1990). "Local hyperthermia for superficial and moderately deep tumors--factors affecting response". Advances in experimental medicine and biology 267: 353–67. PMID 2088053. 
  11. ^ Bicher, HI; Afuwape, SA; Wolfstein, RS; Bruley, DF; Reesman, K (1990). "TRIPAS: A triapplicator system with relocatable 'hot spot' at tissue depth". Advances in experimental medicine and biology 267: 327–44. PMID 2088051. 
  12. ^ Thermoradiotherapy is underutilized for the treatment of cancer, Medical Physics
  13. ^ Microwave plaque thermoradiotherapy for choroidal melanoma, Medical Physics
  14. ^ Thermoradiotherapy for residual microscopic cancer: elective or post-excisional hyperthermia and radiation therapy in the management of local-regional recurrent breast cancer., PubMed

External links