Page 1 of 3 ISSN: 2693-4965 DOI: 10.33552/OJCRR.2023.07.000655 Online Journal of Cardiology Research & Reports Mini Review Copyright © All rights are reserved by Jordan J Proton Paths of Cardiac Immune Reflex Yang I Pachankis* Universal Life Church, California, USA *Corresponding author: Yang I Pachankis, Universal Life Church, Modesto, California, USA. Received Date: February 09, 2023 Published Date: February 21, 2023 This work is licensed under Creative Commons Attribution 4.0 License OJCRR.MS.ID.000655. Transmembrane Fusogenicity Functional protons contribute to proton-coupled electron transfer (PCET) in cellular biochemistry. PCET may be pH depen- dent or independent, and its capacities in converting substrate pH values are of particular interests to homeostasis, pharmacokinet- ics, pathogen, and etc. [1]. Voltage-gated proton channels (Hv ) exist widely from microorganisms to animal physiology with cell mem- branes, modulated by pH with strong temperature dependence and change pH in turn with depolarization [2]. Structural features exist in the ion channel pathways such as tetrameric voltage-gat- ed K + , Na + , and Ca 2+ helix ion channels, subsequently inducing in- tracellular and transmembrane flows through gating and cation depolarization [2,3]. It is not yet clear how positrons react to the anions with transient ion pairs with the depolarizing pulse in the open and gating momenta of PCET, but the gating pore may provide further insights into the inner structures of the process [3]. From pentameric ligand-gated ion channel (pLGIC), the Gloeobacter vi- olaceus (GLIC) detection precision went from 5-10Å to 2-3Å on proton-gating process study, indicating that axial charges open the proton receptor with a nonconductive ion channel, break the inter facial hydrogen-bond network, and form a secondary electrostat- ic triad with hydrophobic residues before the gating process with proton-elicited channel currents during couple-binding [1,4]. Hy- droxyl anions act both as the proton-receptor and transmembrane medium in the process, and the protonic motive force equation for adenosine triphosphatase (ATP) synthesis was theorized as [5]: 10 10 2.3 2.3 1 pB L nB pB H H RT RT pmf log log F F H H ψ + + + +             =∆ + + +             From (1) 2.3RT pmf pH F ψ =∆ + ∆ (2) The evidence suggests the homeostasis of biochemical electro- stasis and hydrostasis is interconnected by PCET, and regulates ox- idization in the transmembrane domain [6,7]. Protongenesis It is well-experimented with wildtype zebrafish embryos for Abstract The literature review synthesizes the cardiac cross in immunological activities through adenosine triphosphatase (ATP). Biochemical pro- ton-coupled electron transfer (PCET) is intimately associated with human physiological and pathogenic attributes. The review is motivated by immunological viral pathogens such as SARS-CoV-2 and HIV-1, and is thus structured. The organic and inorganic chemistries involved in PCET will further the knowledge on physiological correlations between cardiac activities and neurological developments. Keywords: Adenosine triphosphatase; Immune reflex; Proton-coupled electron transfer; Proton-gating; Vegetative nervous system