Differential In Vivo Effects on Cancer Models by Recorded Magnetic Signals Derived From a Healing Technique.

Previous research on "healing-with-intent" has reasonably demonstrated the validity of the phenomenon at least when a human healer is present and involved. However, in order for healing to be adopted into more conventional therapies, it must be able to be made scalable. The present study tests the effects of a scalable recording of the Bengston Healing Method on 3 cancer models. BalbC mice engrafted with 4T1 breast cancer cells, C57BL mice with melanoma B16 cells, and C3H mice with bladder MBT-2 wells were exposed to a recording of healing intent for 4 hours/day for approximately 1 month. In the breast cancer model, there was significant tumor suppression and a reduction of anemia marker HCT in treated vs control mice. In the melanoma model, there were no significant differences except for a reduction in platelet count among the treated mice. For unknown reasons, tumor growth never became evident in the bladder cancer model. While the effects of the recording seem to vary by model, there appears reason to pursue scalable delivery systems in multiple models and with multiple doses.

Effects Induced In Vivo by Exposure to Magnetic Signals Derived From a Healing Technique.

Energy healing is a therapy said to manipulate and balance the flow of "energies" in the body. One such technique, the Bengston Healing Method (BHM), has shown some success in healing malignant tumors in animals and humans, but the mechanism of action and factors influencing therapeutic success of this method are poorly understood. In this study, we tested in vivo the antitumor potential of magnetic signals recorded during BHM healing. Balb/c mice engrafted with 4T1 breast cancer cells were exposed to this recording for 4 h/d on a weekly or daily basis for 28 days; control mice were not exposed at all. Tumors showed a trend to grow slower in the treatment versus control group during the fourth week of treatment. Elevated leukocyte counts, associated with an increase in blood levels of granulocyte-macrophage colony stimulating factor and interleukin-6, were observed in tumor-bearing mice exposed to the BHM recording but not in healthy animals exposed to the recording. This suggests that exposure to a recording of BHM may induce a biological response in tumor-bearing mice, but limited effects on tumor growth when observed within the predefined end point of 28 days. Studies involving longer end points are recommended to observe the progression of tumor growth.

Transcriptional Changes in Cancer Cells Induced by Exposure to a Healing Method.

Energy healing, or healing with intent, is a complementary and alternative medicine therapy reported to be beneficial with a wide variety of conditions. We are developing a delivery technology for a method previously tested in mouse models with solid tumors (the Bengston method) independent of the presence of a healer. The goal of this study was to assess whether stored or recorded energy has an impact on breast cancer cells in vitro, using energy-charged cotton and electromagnetic recording of healers practicing the method. Expression of genes involved in cancer and inflammation pathways was measured by quantitative reverse transcription polymerase chain reaction (qRT-PCR). Treatment of cells using energy-charged cotton resulted in statistically significant changes <1.5-fold. In cells exposed to an electromagnetic recording, 37 genes of 167 tested showed a >1.5-fold change when compared to the control, and 68 genes showing statistically significant fold changes. Two genes, ATP citrate lyase (ACLY) and interleukin 1ß (IL-1ß), were consistently downregulated at 4 and 24 hours of exposure to the recording, respectively, in 3 independent experiments. Both ACLY and IL-1ß were also downregulated in cells exposed to a hands-on delivery of the method, suggesting these 2 genes as potential markers of the healing method.

Challenges for Preclinical Investigations of Human Biofield Modalities.

Preclinical models for studying the effects of the human biofield have great potential to advance our understanding of human biofield modalities, which include external qigong, Johrei, Reiki, therapeutic touch, healing touch, polarity therapy, pranic healing, and other practices. A short history of Western biofield studies using preclinical models is presented and demonstrates numerous and consistent examples of human biofields significantly affecting biological systems both in vitro and in vivo. Methodological issues arising from these studies and practical solutions in experimental design are presented. Important questions still left unanswered with preclinical models include variable reproducibility, dosing, intentionality of the practitioner, best preclinical systems, and mechanisms. Input from the biofield practitioners in the experimental design is critical to improving experimental outcomes; however, the development of standard criteria for uniformity of practice and for inclusion of multiple practitioners is needed. Research in human biofield studies involving preclinical models promises a better understanding of the mechanisms underlying the efficacy of biofield therapies and will be important in guiding clinical protocols and integrating treatments with conventional medical therapies.

Can healing be taught?

The recent explosion of opportunities and interest in learning to heal has not been accompanied by sufficiently convincing empirical data to show that healing is teachable. We explore selected examples of teaching modalities and outline their general ethos. Five empirical criteria necessary to demonstrate teachability are outlined. We suggest that no research to date, including a previous claim by one of us (W.F.B.), has surmounted the difficult obstacles that need to be overcome to make such a claim. Some scientific and social implications of the teachability of healing are discussed.

Resonance, placebo effects, and Type II errors: some implications from healing research for experimental methods.

BACKGROUND: Classical experimental design presupposes that subjects, randomly separated into experimental and control groups, are independent and distinct. Treatments given to the experimental group ought to have no effect on the control group, which functions as a baseline to illustrate "what otherwise would have happened." Any change in the control group is often labeled an "anomaly." Examples of these types of anomalous phenomena can be found in placebo research, which often shows proportional unexpected and unexplained changes in control subjects. In four previously reported experiments on anomalous healing using "healing with intent" on mice injected with lethal doses of mammary adenocarcinoma (source, The Jackson Laboratories, Bar Harbor, ME; code, H2712; host strain, C3H/HeJ), a high percentage of both experimental and control mice exhibited an anomalous healing pattern, most often passing through stages of tumor ulceration to full life-span cure. OBJECTIVE: In order to explain tumor regression of control animals, I posit the formation of "resonant bonds," which can link spatially separate groups. Healing given to the experimental animals can result in an unintended treatment to the control animals, producing anomalous healing akin to placebo effects. MATERIALS AND METHODS: A recently completed experiment at the Terre Haute campus of the Indiana University School of Medicine has produced a successful test of resonance theory. One group of mice (n = 30) was injected with mammary adenocarcinoma cells and randomly divided into a treated group (n = 15) and untreated control group (n = 15). A second group of age-matched controls (n = 25) was left uninjected. Mice from each group were intermittently sacrificed to measure hematologic values and spleen weight. RESULTS: As predicted by resonance theory, there were few differences between treated and untreated animals from the first group, but there were significant differences between these animals and the age-matched controls. CONCLUSIONS: Some implications for placebo research and the way we normally conceptualize Type II errors will be discussed. Researchers are invited to reanalyze past data in light of resonance theory.