Author & Intellectual Property Owner: Zhurat Aisultan (Жүрәт Айсұлтан)
Date of Origin: April 16, 2026
Location: School-Gymnasium No. 39, Taraz, Kazakhstan
This document establishes the conceptual priority regarding the Neural Adhesive Bridge (NAB) method designed for restoring visual nerve conductivity and bridging damaged neural pathways. The protocol combines bio-inspired protein hydrogels with flexible micro-electrode arrays to restore signal transmission from retinal ganglion cells (RGCs) to the brain.
The protocol proposes bypassing traditional nerve regeneration failure through a Bio-compatible Adhesive Scaffold.
Instead of relying solely on biological nerve fusion, the NAB system utilizes a specialized protein-based hydrogel that forces surviving neurons to physically adhere to a flexible micro-electrode shunt, establishing a functional bridge for visual signal transmission.
To achieve bio-compatibility and structurally match the native optic nerve environment, the NAB matrix incorporates functional amino acid motifs based on the natural proteome of optic nerve structures:
- RGD Sequences (Arg-Gly-Asp): Arginine (Arg), Glycine (Gly), and Aspartic Acid (Asp) are embedded into the hydrogel matrix to bind integrin receptors on surviving neurons, inducing cell attachment.
- Basic Surface Charge (Arg / Lys): Incorporating positively charged Arginine and Lysine residues mimics the native Myelin Basic Protein (MBP), facilitating electrostatic coupling with negatively charged neural membranes.
- Hydrophobic Core (Leu / Ile / Val): Leucine, Isoleucine, and Valine are used to form hydrophobic domains, preventing rapid hydrogel degradation in aqueous ocular environments.
- Disulfide Bridging (Cys): Cysteine residues allow covalent disulfide (S-S) cross-linking, providing mechanical elasticity and structural stability matching the lamina cribrosa.
- Flexibility (Pro / Gly): Proline bends the protein chains while Glycine ensures dense helical packing, mimicking native collagen structures.
- Glutamatergic Signaling: The hydrogel framework is optimized to prevent interference with endogenous Glutamate (Glu), the primary excitatory neurotransmitter of the visual pathway, while maintaining localized levels of inhibitory regulators (GABA and Glycine).
Disclaimer
This repository contains a theoretical research concept intended strictly for academic evaluation and research purposes. Not for clinical or medical use.