Clinical Evaluation of a New Form of Cancer Therapy (Atavistic Chemotherapy) Based on the Principles of Atavistic Metamorphosis (2011)
Summary
The cell behavior that the investigators regard as "malignant," including: cell autonomy; invasion and digestion of surrounding normal tissues; migration and colonization of distant organs; ability to develop resistance to drugs, temperature, or radiation; and ability to kill the host, are not only characteristics of cancer cells, but of pathogenic and/or opportunistic unicellular organisms (bacteria, fungi and protozoa). Rudolf Virchow (1821-1902), the father of modern pathology, first pointed out the resemblance between the biological behavior of cancer cells and that of single-celled organisms when causing infections. He thought, incorrectly, that cancer cells were cells infected with bacteria and had acquired their pathogenic behavior from them. Others later postulated that the behavior of cancer cells was likely due to the re-expression of past traits and behaviors (atavism) derived from their past evolutionary experience as independent, single-celled organisms from which all cells in multicellular organisms originated. In other words, the behavior of pathogenic unicellular organisms, including: unlimited replicative potential; capacity for invasion, migration, and metastases; abilities to evade the host's immune system, to generate multi-drug resistance; and to kill a host, are what the investigators define as "cancer" when one of the investigators cells re-express these past ancestral traits. This reversion or de-evolution of a differentiated cell to its ancestral undifferentiated, unicellular form has been named "Atavistic Metamorphosis." This does not imply that cancer cells are bacteria, protozoa, or yeasts. It means that cancer cells express functions and/or behaviors similar to their ancestral parents, the unicellular organisms from which our cells originated. If this is true, a combination of drugs that are effective to eradicate certain unicellular organisms may work in cancer treatment. The principal objective of this study is to determine whether there is a benefit for patients with advanced, metastatic and terminal cancers to be treated with combinations of selected drugs conventionally used in medical practice to kill bacterial, fungal and protozoal cells.
Timeline
- Start
- 2011-07-26
- Primary completion
- 2022-12-31
- Completion
- 2023-12-31
Publications
- Background Arguello F, Baggs RB, Frantz CN. A murine model of experimental metastasis to bone and bone marrow. Cancer Res. 1988 Dec 1;48(23):6876-81.
- Background Arguello F, Alexander M, Sterry JA, Tudor G, Smith EM, Kalavar NT, Greene JF Jr, Koss W, Morgan CD, Stinson SF, Siford TJ, Alvord WG, Klabansky RL, Sausville EA. Flavopiridol induces apoptosis of normal lymphoid cells, causes immunosuppression, and has potent antitumor activity In vivo against human leukemia and lymphoma xenografts. Blood. 1998 Apr 1;91(7):2482-90.
- Background Arguello F, Baggs RB, Duerst RE, Johnstone L, McQueen K, Frantz CN. Pathogenesis of vertebral metastasis and epidural spinal cord compression. Cancer. 1990 Jan 1;65(1):98-106. doi: 10.1002/1097-0142(19900101)65:13.0.co;2-k.
- Background Arguello F, Furlanetto RW, Baggs RB, Graves BT, Harwell SE, Cohen HJ, Frantz CN. Incidence and distribution of experimental metastases in mutant mice with defective organ microenvironments (genotypes Sl/Sld and W/Wv). Cancer Res. 1992 Apr 15;52(8):2304-9.
- Background Arguello F, Baggs RB, Graves BT, Harwell SE, Cohen HJ, Frantz CN. Effect of IL-1 on experimental bone/bone-marrow metastases. Int J Cancer. 1992 Nov 11;52(5):802-7. doi: 10.1002/ijc.2910520522.
- Background Arguello F, Sterry JA, Zhao YZ, Alexander MR, Shoemaker RH, Cohen HJ. Two serologic markers to monitor the engraftment, growth, and treatment response of human leukemias in severe combined immunodeficient mice. Blood. 1996 May 15;87(10):4325-32.
Drugs
| Evaluation | Drug | Modality | Dose | Route |
|---|---|---|---|---|
| Subject | Albendazole | Small molecule | — | — |
| Subject | Amphotericin B | Unknown | — | — |
| Subject | Chloroquine | Small molecule | — | — |
| Subject | Clarithromycin | Small molecule | — | — |
| Subject | Clindamycin | Unknown | — | — |
| Subject | Dapsone | Small molecule | — | — |
| Subject | Doxycycline | Small molecule | — | — |
| Subject | Fluconazole | Small molecule | — | — |
| Subject | Itraconazole | Small molecule | — | — |
| Subject | Ivermectin | Small molecule | — | — |
| Subject | Levamisole | Small molecule | — | — |
| Subject | Mebendazole | Small molecule | — | — |
| Subject | Metronidazole | Small molecule | — | — |
| Subject | Miltefosine | Small molecule | — | — |
| Subject | Nitazoxanide | Other / unclassified | — | — |
| Subject | Paromomycin | Small molecule | — | — |
| Subject | Praziquantel | Small molecule | — | — |
| Subject | Terbinafine | Small molecule | — | — |
| Subject | Voriconazole | Small molecule | — | — |