Exploring dopamine as the master regulator of brain circuitry and mental health genome

Artificially increasing dopamine transmission is the common mechanism by which substances with addictive potential lead to addiction. A key area of research in neurobiology is the role of dopamine. Significant advancements have been made in uncovering the intracellular signaling pathways that mediate both dopamine's immediate effects and its long-term influence on brain function. Recent discoveries have also highlighted specific molecules that could serve as potential therapeutic targets for neurological and psychiatric disorders. While understanding several important caveats, we believe dopamine acts as a master regulator of brain circuitry across major chromosomes mapping the mental health genome. This view may have important clinical relevance, emphasizing the critical role of dopaminergic activity across the genome. Importantly, we are cognizant that dopamine does not work in insolation, and its finite actions are due to a highly interactive network (known as the brain reward cascade), involving at least seven other major neurotransmitters.

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Publication Details

Journal
Gene & Protein in Disease
Published
2025-06-03
DOI
https://doi.org/10.36922/gpd.6557
Primary Topic
Receptor Mechanisms and Signaling
Type
article
Field-Weighted Citation Impact
0.00
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article

Exploring dopamine as the master regulator of brain circuitry and mental health genome

Foojan Zeine, Edward J. Modestino, Kenneth Blum, Alireza Sharafshah et al.
1 links
Gene & Protein in Disease
Receptor Mechanisms and Signaling
article

Exploring dopamine as the master regulator of brain circuitry and mental health genome

Foojan Zeine, Edward J. Modestino, Kenneth Blum, Alireza Sharafshah, Jag Khalsa, Daniel Sipple, Nicole Jafari, J. Wesson Ashford, Abdalla Bowirrat, Igor Elman, Albert Pinhasov, Keerthy Sunder, Kai‐Uwe Lewandrowski, Milan Makale, Brian Fuehrlein, Catherine A. Dennen, Panayotis K. Thanos, David Baron, Aryeh R Pollack, Kevin T. Murphy, Eric R. Braverman, Rajendra D. Badgaiyan, Alexander P. L. Lewandrowski, Mark S. Gold
article en

Abstract

Artificially increasing dopamine transmission is the common mechanism by which substances with addictive potential lead to addiction. A key area of research in neurobiology is the role of dopamine. Significant advancements have been made in uncovering the intracellular signaling pathways that mediate both dopamine's immediate effects and its long-term influence on brain function. Recent discoveries have also highlighted specific molecules that could serve as potential therapeutic targets for neurological and psychiatric disorders. While understanding several important caveats, we believe dopamine acts as a master regulator of brain circuitry across major chromosomes mapping the mental health genome. This view may have important clinical relevance, emphasizing the critical role of dopaminergic activity across the genome. Importantly, we are cognizant that dopamine does not work in insolation, and its finite actions are due to a highly interactive network (known as the brain reward cascade), involving at least seven other major neurotransmitters.

Gene & Protein in DiseaseVol. 4(4)
Guilan University of Medical Sciences (IR), Washington University in St. Louis (US), Yale University (US), Fundación Universitaria Sanitas (CO), Ariel University (IL), Universidade Federal do Estado do Rio de Janeiro (BR), Stanford University (US)
Good health and well-being
Openalex Percentile: Top 89%
Receptor Mechanisms and Signaling
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