Epigenetic Modulation and Neuroprotective Effects of Neurofabine-C in a Transgenic Model of Alzheimer’s Disease

TL;DR

Neurofabine-C, a compound from cocoa and faba bean, shows neuroprotective effects by reducing inflammation and promoting neuronal health in a mouse model of Alzheimer's.

Contribution

The study reveals novel epigenetic mechanisms of Neurofabine-C in modulating neuroinflammation and neurodegeneration.

Findings

Neurofabine-C reduced neuroinflammation and neuronal degeneration in transgenic mice.

It increased neurogenesis and induced epigenetic changes like enhanced DNA methylation.

Key neuroprotective genes were upregulated, while harmful gene expressions decreased.

Abstract

Background: Currently, there are limited therapeutic or preventative strategies for neurodegenerative disorders due to the challenges in alleviating the progressive neuronal loss and neuroinflammation which are the primary characteristics of these diseases, ultimately leading to cell death and functional impairment. Cocoa-derived flavanols (Theobroma cacao) have been studied as potential bioactive compounds to modify and reverse various inflammation-associated diseases because of their remarkable antioxidant properties and capacity to modulate metabolic imbalance and reactive inflammatory responses. The faba bean (Vicia faba) extract obtained through nondenaturing biotechnological processes is a potent dopamine (DA) enhancer that has shown promising results as a neuroprotective agent against degeneration. Objective: This study will examine the synergistic effects of Neurofabine-C, a hybrid compound derived from cocoa and faba bean extracts, on various brain biomarkers in mice related to inflammatory, metabolic, and neurodegenerative processes. Methods: A triple-transgenic mouse model of neurodegeneration was treated with Neurofabine-C, and biomolecular data were obtained by performing biochemical and immunohistochemical analysis. Results: Neurofabine-C prevented neuronal degeneration (NeuN), mitigated the neuro-inflammatory processes triggered (decreased expression of reactive astrocytes (GFAP)), and induced an increase in neurogenesis in the treated cortical mice brain (PAX6). Epigenetic analysis revealed significant chromatin remodeling in the hippocampus. Neuroprotective genes, including FOXO3, ATM, and TRP73, were upregulated, whereas the expression of HIF1α and APOE decreased. In parallel, DNMT3A expression increased 20-fold, HDAC3 decreased by 60%, and global 5-methylcytosine levels increased four-fold. These coordinated changes suggest that Neurofabine-C promotes neuroprotective programs through enhanced DNA methylation and reduced histone deacetylation. Conclusions: The findings indicate that Neurofabine-C exhibits multiple neuroprotective mechanisms, making it a potent bioproduct for mitigating neuroinflammatory processes associated with neurodegenerative disorders.

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