The Role of Lactate in Neural Stem Cells and Brain Development: Implications for Cognitive Diseases

by time news

Title: Groundbreaking Study Reveals Lactate’s Vital Role in Brain Development and Neuronal Functions

Subtitle: Researchers uncover how lactate signaling can potentially prevent or control cognitive diseases

Date: [Insert Date]

Researchers from Tohoku University have made a groundbreaking discovery about the critical role of lactate in the development of neural stem cells, leading to specialized neurons. The study, published in the Journal of Biological Chemistry, uncovers the significance of lactate in brain development and neuronal differentiation, potentially opening new avenues for preventing and controlling cognitive diseases.

Lactate, a byproduct of exercise and metabolism, has long been considered an essential component of the nervous system. The study reveals that lactate plays a significant role in the modification and strengthening of neuronal functions by sending signals to neural stem cells.

By examining the gene regulation of cells treated with lactate, the researchers identified a protein called NDRG3 that mediates gene regulation when lactate is present. They found that lactate facilitates neural differentiation through NDRG3-dependent and NDRG3-independent mechanisms. Furthermore, they discovered that two specific transcription factors, TEAD1 and ELF4, are controlled by lactate and NDRG3 during neuronal differentiation.

The findings shed light on the novel mechanisms by which high serum lactate levels, induced by exercise, can benefit the nervous system. They provide valuable insights into the potential use of lactate signaling to encourage exercise or design drugs for the prevention and control of cognitive diseases.

Professor Ryoichi Nagatomi, the leader of the research team, expresses optimism about the future implications of their findings. “Our findings provide a novel insight into the mechanisms by which exercise-induced high serum lactate levels may beneficially affect the nervous system,” says Professor Nagatomi. “Furthermore, since the changes in lactate levels caused by human exercise can be measured, the adaptational changes in brain function such as cognition and memory function can be better understood when changes in the lactate level are considered.”

The study emphasizes the critical role of lactate in neuronal differentiation and brain development. Further research will be conducted by the team to explore the regulatory function of lactate in neuron and brain development.

The implications of this research are significant, as they pave the way for potential therapeutic interventions that harness lactate signaling. By understanding how lactate influences neuronal functions, scientists may develop strategies to prevent or control cognitive diseases in the future.

This research conducted by Tohoku University represents a groundbreaking advancement in our understanding of lactate’s role in brain development and neuronal differentiation. As studies continue, the potential applications of lactate signaling in promoting exercise and combating cognitive diseases become increasingly promising.

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