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Mechano Growth Factor: Impacts in Neuron Loss

MGF Peptide: Impacts in Neuron Loss by Dr. Usman | Apr 5, 2021 | Research Dr. Windebank et al. evaluated neurological impact using a murine model for MGF overexpression. Breeding of transgenic mice was done to help constitutively overexpress MGF in the hippoca

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MGF Peptide: Impacts in Neuron Loss

by Dr. Usman | Apr 5, 2021 | Research

Dr. Windebank et al. evaluated neurological impact using a murine model for MGF overexpression. Breeding of transgenic mice was done to help constitutively overexpress MGF in the hippocampus and the subventricular region of the brain – these are the areas of the brain speculated to be associated with neural development and differentiation (neurogenesis). The histological study suggested an extremely high concentration of BrdU, a synthetic marker for detecting proliferating cells in live tissues, in these portions of the mice brain tissues. This represents high levels of cell proliferation and growth in the specific domains of the brain.

A different batch of double transgenic mice was then bred such that the animals produced MGF under certain conditions only when activated by the presence of a triggering agent added to their drinking water. Researchers depended on this new population of mice to study the long-term influence of increased neural MGF production when produced at 1, 3, or 12 months old. Behavioral studies and further histological assays were then conducted at 24 months. Mice showing high Mechano Growth Factor production not only showed signs of neurogenesis but also greater resistance to age-associated neural degeneration, as posited by their improved olfactory responses. They also appeared to display greater speed and higher success in cognitive tests.

The speculated efficiency of MGF was observed to be age-dependent, as suggested in the study. Early induction of MGF production appeared to have resulted in a more dramatic proliferation of BrdU+ cells and further neurological improvement throughout adult life. If MGF production was not stimulated before 12 months of the age of mice, there appeared to be no significant histological or behavioral differences compared to the control group.

As per current research, the cellular site of action or MGF mechanisms is unknown, and further studies are suggested to be needed to deep dive into the cellular and behavioral potential of the Mechano Growth Factor on neurogenesis.

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Dr. Usman

Dr. Usman (BSc, MBBS, MaRCP) completed his studies in medicine at the Royal College of Physicians, London. He is an avid researcher with more than 30 publications in internationally recognized peer-reviewed journals. Dr. Usman has worked as a researcher and a medical consultant for reputable pharmaceutical companies such as Johnson & Johnson and Sanofi.

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Naturally occurring IGF-1 has been widely researched, and scientists have isolated MGF in the hopes of enhancing on specific proposed characteristics of IGF-1. Researchers have suggested MGF may hold potentially analogous action due to its apparent specific action on muscle satellite cells. Muscle satellite cells are multi-potent stem cells, classified as ‘undifferentiated cells.’ In other words, they are considered to divide, re-divide, and mature into various types of cells. Their proliferation appears to play a role in tissue regeneration and muscle mass build-up through the increase in the number of muscle fibers. Researchers have reported MGF may introduce them back into the cell cycle, which may help them to perform these functions. Additionally, MGF may exhibit neuroprotective potential in ischaemic brain tissue. This is attributed to its possible capacity to reduce neuronal loss and infarct area. BPC-157 and TB-500 have been heavily researched for their potential in tissue repair and cell function maintenance. Recent studies suggest that MGF may exert similar impact, expressed as pulses following muscle damage, which has been linked to the activation of muscle satellite (stem) cells. Once activated, these stem cells appear to divide and differentiate to form muscle fibers, possibly resulting in hastened tissue repair.

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Peptide Therapy Guide Editorial Team

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