Osteopathic manipulative medicine (OMM) is an emerging practice in the healthcare field with increasing popularity and evidence-based therapy. Osteopathic manipulative treatments (OMT) include hands-on manipulations of different body structures to increase systemic homeostasis and total patient well-being. Indeed, this new realm of the whole patient-based approach is being taught in osteopathic schools around the country, and the osteopathic principles of a mind-body-spirit-based treatment are being instilled in many new Doctor of Osteopathy (D.O.) students. However, despite their proven therapeutic value, there are still many individuals, both in and outside the medical profession, who are unaware (or misinformed) of the therapeutic uses and potential benefits of OMT. Here, we provide a brief introduction to this osteopathic therapeutic approach, focusing on the hands-on techniques that are regularly implemented in the clinical setting. It is becoming increasingly evident that different OMTs can be implemented to enhance patient recovery, both alone and in conjunction with the targeted therapies used in allopathic regimens. Therefore, it may be beneficial to inform the general medical community and educate the public and those associated with the healthcare field about the benefits of using OMT as a treatment modality. OMT is lower-cost, noninvasive, and highly effective in promoting full-body healing by targeting the nervous, lymphatic, immune, and vascular systems. There is a growing body of literature related to osteopathic research and the possible molecular pathways involved in the healing process, and this burgeoning field of medicine is expected to increase in value in the healthcare field. This brief review article explains the frequently utilized OMT modalities and their recognized therapeutic benefits, which underscore the need to understand the possible molecular mechanisms and circulating biomarkers linked to the systemic benefits of osteopathic medicine.

Background: The outgrowth of castration-resistant prostate cancer (CRPC) dictates patient morbidity and mortality. Recurrence of prostate cancer (PC) following androgen-deprivation therapy (ADT) often occurs due to constitutively active androgen receptor (AR) splice variants (AR-Vs), primarily AR-V7. Therefore, safe and effective therapies enabling the suppression of both full-length AR (AR-FL) and AR-Vs are urgently needed. The natural compound dimethyl sulfoxide (DMSO) has negligible cytotoxicity at concentrations below 5% and has anticancer potential. DMSO has been broadly used in biomedical research as a solvent for pharmaceuticals, as a cryoprotectant for cells, and as a topical treatment to suppress pain and inflammation. We investigated the effect of low-dose DMSO on AR expression, cell viability, and metastatic ability in PC cell lines expressing both AR-FL and AR-V7 (e.g., 22Rv1) and those expressing only AR-FL (e.g., C4-2B). Methods: MTT cell viability assays were performed to measure DMSO-induced cytotoxicity. Wound-healing assays were conducted to monitor the effect of DMSO on the migratory phenotype of cancer cells. Western blot analyses were performed to study the efficacy of DMSO in suppressing the protein levels of AR-FL and AR-V7, and expression of heterogeneous nuclear ribonucleoprotein H1 (hnRNPH1) was measured as a possible mechanism. Results: At concentrations of 0.1–1% (v/v), DMSO treatment showed minimal cytotoxicity, whereas the highest concentration used (2.5%) showed approximately 20% cytotoxicity at 96 h. Interestingly, however, DMSO treatment at concentrations of 1.0 and 2.5% significantly inhibited the migration of PC cells. Treatment with DMSO led to a dose-dependent inhibition of both AR-FL and AR-V7. Notably, in 22Rv1 cells, DMSO potently downregulated the expression of hnRNPH1, a splicing factor often associated with AR expression and signaling. Conclusions: Our findings suggest that low concentrations of DMSO may have potential as an effective anticancer agent, both at the initial and later stages when PC cells become castration resistant.