Occipito-Podal Reflexotherapy and the Viscera of the Abdominal and Pelvic Cavities

A mechanical and neurophysiological framework for practitioners: mobility versus motility; the four drivers of visceral movement — somatic, autonomic, intrinsic motility, and biorhythms; turgor; intracavitary pressure; and serous membrane gliding.

From MacLean's triune brain model to the reticular formation: brainstem, cerebellum, limbic system, cortex, basal ganglia, and neurotransmitters. Foot and occipital reflex zones corresponding to each cerebral structure.

Parasympathetic and sympathetic systems: functions, homeostasis, the ANS–sleep relationship, and the enteric nervous system. The vagus nerve — with 70 to 80% afferent sensory fibres — and its anti-inflammatory role. A clinical framework for autonomic imbalances in R.O.P.

From Walter Cannon's concept of homeostasis to Hans Selye's general adaptation syndrome: distress, eustress, and physical, biochemical, and emotional stressors. The central role of the ANS and the limbic system — and the place of R.O.P. interventions.

Dr. Stephen Porges: three phylogenetic levels of the ANS — immobilisation, or old vagal; mobilisation, or sympathetic; and social engagement, or new vagal. Clinical implications for vagal regulation in R.O.P.

Complete architecture of the abdominal cavity: the peritoneum; intra-, retro-, and subperitoneal spaces; fasciae; and mesenteries. The influence of thoracic pressure changes on the viscera. An R.O.P. clinical interpretation of fascial and mechanical constraints.

The diaphragm as a respiratory motor — approximately 16 breaths per minute and tens of thousands of cycles per 24 hours — with visceral and venolymphatic functions. Diaphragmatic attachments, the oesophageal hiatus, pressure gradients, and venous return. Clinical applications in R.O.P.

Complete anatomy of the stomach — J shape, four segments, lower oesophageal sphincter, cardia, fundus, and pylorus — the physiology of digestion in an acidic environment, the impact of stress on gastric secretion, and the emotional dimension of the organ in R.O.P.

The U-shaped duodenum — approximately 25 cm long — with four segments, D1 to D4; duodenal papillae; the sphincter of Oddi; and the biliopancreatic junction. Aortomesenteric compression, the impact of stress on the mucosa, and the R.O.P. protocol for duodenal motility.

The largest viscus — 2% of body weight yet 25% of cardiac output. Digestive, metabolic, immune, and detoxifying functions; the Glisson capsule, diaphragmatic ligamentous attachments, the portal triad, and the intra- and extra-hepatic biliary tract. R.O.P. clinical interpretation of hepatic mobility.

A mixed gland — exocrine (1.5 to 2 L of pancreatic juice per day) and endocrine (insulin, glucagon, somatostatin). Retroperitoneal, wrapped around L2–L3, with its head set within the duodenal frame. Wirsung and Santorini ducts, vulnerability to abdominal trauma, and the R.O.P. approach to pancreatic motility.

A lymphoid organ served by blood rather than lymph — white pulp (immunity) and red pulp (destruction of worn-out red blood cells). Subdiaphragmatic on the left, intraperitoneal, mobile with diaphragmatic excursions. Phagocytosis, haematopoiesis, and immune defence — with foot and occipital reflex zones in R.O.P.

A colonic frame of about 1.50 m from the ileocaecal junction to the rectum: caecum, ascending, transverse, descending, and sigmoid colon. Haustrations, taeniae coli, and omental appendages; reabsorption of fluids and formation of stool. R.O.P. clinical interpretation of colonic motility and the hepatic and splenic flexures.

Bean-shaped retroperitoneal kidneys in the lumbar fossae, capped by the adrenal glands. Renal compartment (anterior and posterior fascial layers), relationships with the liver, spleen, colon, and Toldt's fascia. Homeostatic functions and vulnerability to collision trauma — with a dedicated R.O.P. protocol.

The space between the pelvic inlet and outlet — genital and urinary systems functionally intertwined. Sagittal and transverse septa defining a medial visceral compartment and lateral compartments, the inferior hypogastric plexus, and autonomic innervation. R.O.P. clinical interpretation of pelvic–visceral interactions.

Urinary reservoir behind the pubis, with a mobile dome and a base anchored to the pelvic floor. Detrusor (three layers of smooth muscle fibres), pubovesical ligaments, hormonal dependence. Stress incontinence, cystitis, and disorders of pelvic support — the R.O.P. approach to bladder dynamics.

Uterus, vagina, ovaries, and fallopian tubes — the female reproductive system and its hormonal landscape. Pelvic statics, myometrium and endometrium, uterine malpositions, and dysfunctions often hidden behind low-back pain, sciatica, dysmenorrhoea, or dyspareunia. A distal, respectful, and comprehensive R.O.P. approach.

Testes, epididymides, vas deferens, seminal vesicles, prostate, urethra, and penis. Embryonic migration of the gonads, prostatic enlargement around the age of sixty and its urinary, sexual, and psycho-emotional impact. A distal R.O.P. clinical interpretation — non-iatrogenic and respectful of personal privacy.

Symmetrical anatomy of the erectile organs: corpora cavernosa, corpus spongiosum, and vestibular bulbs; ischiocavernosus and bulbospongiosus muscles; Bartholin's and Cowper's glands. The urogenital triangle of the perineum — a common anatomical foundation for arousal, erection, lubrication, and ejaculation. R.O.P. contributions.