Date published: 2026-4-24

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VMAT Inhibitors

Santa Cruz Biotechnology now offers a broad range of VMAT Inhibitors for use in various applications. VMAT Inhibitors, or Vesicular Monoamine Transporter Inhibitors, are critical tools in neuroscientific research, targeting the proteins responsible for the transport of neurotransmitters into synaptic vesicles. These inhibitors are invaluable for studying neurotransmitter dynamics, particularly in the regulation of neurotransmission and synaptic plasticity. By blocking the function of VMATs, researchers can examine the effects of altered neurotransmitter storage and release, providing insights into the cellular processes that underlie nerve communication. This has profound implications for understanding neurological processes and behaviors from a non-clinical perspective. Additionally, VMAT Inhibitors are used in the study of neurobiology, where they aid in explaining the mechanisms of neurotransmitter involvement in neural circuit function and animal behavior. These compounds are also crucial in the field of basic physiological research, helping to dissect the roles of different neurotransmitters in various bodily functions. Beyond neuroscience, VMAT Inhibitors contribute to environmental science, particularly in studies concerning the impact of environmental toxins on neural health and function. Their role extends to developmental biology, where they are used to probe the influence of neurotransmitters on developmental processes. These inhibitors thus offer a broad range of applications that expand our understanding of biophysical and neurochemical systems, enhancing our knowledge of fundamental biological processes. View detailed information on our available VMAT Inhibitors by clicking on the product name.
Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

FFN511 trifluoroacetate salt

1004548-96-2 (free base)sc-391012
sc-391012A
5 mg
25 mg
$258.00
$1100.00
(0)

FFN511 trifluoroacetate salt exhibits unique properties as a vmat, characterized by its ability to modulate neurotransmitter transport through specific ionic interactions. Its trifluoroacetate moiety enhances solubility and stability, facilitating rapid diffusion across membranes. The compound's kinetic profile reveals distinct reaction pathways, influenced by its electronic structure, which affects binding affinity to transport proteins. This results in altered uptake dynamics, impacting neurotransmitter homeostasis.