1. Integral methods for automatic quantification of fast-scan-cyclic-voltammetry detected neurotransmitters
- Author
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Anders J. Asp, James K. Trevathan, Leonardo X. Espín, J. Luis Lujan, and Kip A. Ludwig
- Subjects
Adenosine ,Computer science ,Dopamine ,Glycobiology ,Amperometry ,02 engineering and technology ,01 natural sciences ,Biochemistry ,Norepinephrine ,Catecholamines ,Medicine and Health Sciences ,Amines ,Neurotransmitter Agents ,Multidisciplinary ,Organic Compounds ,Chemical Reactions ,Neurochemistry ,Nucleosides ,Visual identification ,Neurotransmitters ,021001 nanoscience & nanotechnology ,Serotonin metabolism ,Glycosylamines ,Chemistry ,Bioassays and Physiological Analysis ,Physical Sciences ,Medicine ,0210 nano-technology ,Biological system ,Oxidation-Reduction ,Research Article ,Analyte ,Biogenic Amines ,Serotonin ,Epinephrine ,Science ,Fast-scan cyclic voltammetry ,Surgical and Invasive Medical Procedures ,010402 general chemistry ,Research and Analysis Methods ,Oxidation ,Animals ,Humans ,Dopamine metabolism ,Bioelectrochemical Analysis ,Functional Electrical Stimulation ,Extramural ,Organic Chemistry ,Chemical Compounds ,Biology and Life Sciences ,Oxidation reduction ,Electrochemical Techniques ,Hormones ,0104 chemical sciences ,Rats ,Sources of error ,Biochemical Analysis ,Microelectrodes ,Neuroscience - Abstract
Modern techniques for estimating basal levels of electroactive neurotransmitters rely on the measurement of oxidative charges. This requires time integration of oxidation currents at certain intervals. Unfortunately, the selection of integration intervals relies on ad-hoc visual identification of peaks on the oxidation currents, which introduces sources of error and precludes the development of automated procedures necessary for analysis and quantification of neurotransmitter levels in large data sets. In an effort to improve charge quantification techniques, here we present novel methods for automatic selection of integration boundaries. Our results show that these methods allow quantification of oxidation reactions both in vitro and in vivo and of multiple analytes in vitro.
- Published
- 2021