The Metabolic-Psychosomatic Axis, Stress and Oxytocin Regulation

Alfred Bennun, Ph.D.
Full Professor-Emeritus-Rutgers University Consultant,
Rutgers University, NJ, USA

Series: Biochemistry and Molecular Biology in the Post Genomic Era
BISAC: SCI007000



Volume 10

Issue 1

Volume 2

Volume 3

Special issue: Resilience in breaking the cycle of children’s environmental health disparities
Edited by I Leslie Rubin, Robert J Geller, Abby Mutic, Benjamin A Gitterman, Nathan Mutic, Wayne Garfinkel, Claire D Coles, Kurt Martinuzzi, and Joav Merrick


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Sensorial neurons activate the locus coeruleus long axons for a presynaptic Ca2+-dependent release of noradrenaline (NA). Postsynaptic adenylyl cyclase (AC) of several areas of the brain shows Mg2+-dependent responsiveness to the neurotransmitter in the absence of Ca2+ when the free Mg2+ is present in excess of substrate Mg-ATP.

The brain capillary glucose uptake by red-cells leads to the endogenous generation of 2,3-DPG, and promotes the oxyHb-deoxygenation to discharge Mg2+ at the noradrenergic synapses.

Since adrenaline cannot cross the blood brain barrier, it could not have a feedback; however, cortisol does.

cAMP controls the activation of the initial voltage-gated state of the action potential, configuring nerve impulse, transcription-plasticity mechanism and long-term memory.

Overall, this molecular mechanism could be used to propose a model linking environmental stimulus resulting in cAMP and the rate of gene expression.

DNA-dependent RNA polymerase activation is inducible, expressed under the conditions of adaptive value by cAMP. The zipper-closure role of the enzyme functions with divalent metal for inclusion of the cyclic nucleotide cAMP and cGMP in DNA. cAMP by binding to Mg2+ ion interacts with the negatively charged phosphate groups. The latter chelated by Mg2+ opens the double chain in DNA for binding DNA-dependent RNA polymerase. The greater activity of cAMP-Me2+-DNA complex with regard to a stabilized double helix allows for the introduction of a mechanism for genetic induction vs constitutive state.

The cAMP-Me2+-DNA complex by increasing a turn-on activity could consolidate cAMP stimulus, allowing genetic variance by insertion of cAMP, by adhesion of cAMP to stimulate a similar area of the DNA at different stages on the overall evolutionary/adaptive response to environmental stress.

Charles Darwin discovers evolution relating the adaptive strength of the birds’ beaks conditioned by the hardness of environmental nuts.
The nutritional stress increases free Mg2+. Noradrenaline-stimulated adenylyl cyclase stimulates the hypothalamus, which involves additional metabolic resources to increase the strength of the bird beak. Specific stimulus for the DNA location controlling the bird’s beak development allows for a complementary configuration for cAMP insertion into the near specific bird-beak-DNA segment involved in beak growing and development. cAMP-Me2+-DNA complex inserted in the DNA complex is continuously open for DNA transcript involved in developing a new, stronger beak.

A genetic link between the induction mechanism and a transitory modification of DNA expression could enrich the relationship of induced vs constitutive templates in the reproductive cells.

The balance would favor the tendency toinduce activation and increase the DNA response to external stimuli over the constitutive remaining and more stable DNA. (Imprint: Nova)


Chapter 1. Methods

Chapter 2. The Biological Fundamentals of the Adrenergic System of the Brain

Chapter 3. Molecular Details of Ligand Selectivity

Chapter 4. Dynamics of Ligands Exchanges during Hb Deoxygenation

Chapter 5. Enzyme-Membrane Systems

Chapter 6. The Neuronal-Astrocyte-Capillary Coupled System Role in Adrenergic vs Glutamatergic Neurotransmission

Chapter 7. The Dynamic Regulation of the Blood-Brain Barrier Permeability by the Neurovascular Unit (NVU)

Chapter 8. The Hypothalamic-Pituitary-Adrenal Axis Control on the Psychosomatic Metabolic Network

Chapter 9. The Brain-NA-adrenaline Axis Controls the Fight-or-flight Response in the Hypothalamus Signals for a Multi-hormonal Adaptive Response Shifting Levels of Oxytocin, Serotonin, etc.

Chapter 10. Insulin Role

Chapter 11. Sleep-Wake

Chapter 12. Interrelationship Between Steroidal Hormone Pathways

Chapter 13. Responses to Stress and Associated Dysfunctions

Chapter 14. Conclusion




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