Document Type
Dissertation
Degree
Doctor of Philosophy (PhD)
Major/Program
Chemistry
First Advisor's Name
Kenneth G. Furton
First Advisor's Committee Title
Committee chair
Second Advisor's Name
Norman Munroe
Second Advisor's Committee Title
committee member
Third Advisor's Name
John Berry
Third Advisor's Committee Title
committee member
Fourth Advisor's Name
Watson Lees
Fourth Advisor's Committee Title
committee member
Fifth Advisor's Name
Anthony DeCaprio
Fifth Advisor's Committee Title
committee member
Keywords
synthetic cathinones, bath salts, synthetic drugs, headspace, odor profile, SPME, drug detection, canine, Controlled Odor Mimic Permeation System, mimic training aids
Date of Defense
6-1-2017
Abstract
Methylone, Ethylone, Methylenedioxypyrovalerone (MDPV), and α-Pyrrolidinopentiophenone (α-PVP) collectively referred to as bath salts are a new trend of illicit substances known as synthetic cathinones. Designed by chemically modifying the core structure of the compound cathinone, synthetic cathinones became prevalent within the United States around the mid-2000s. As a cheap and less controlled alternative to methylenedioxymethamphetamine (MDMA, ecstasy), it has become heavily abused, prompting emergency scheduling by federal regulators. Although regulations have been placed to halt incoming traffic of these drugs, lack of ground efforts still leave a large percentage of bath salts available.
This study is two-fold, as it seeks to develop an extraction method for the development of Volatile Organic Compound profiles associated with various synthetic cathinones; and also determine the odorant used for canine recognition. The initial goal of this dissertation was to develop an extraction method to characterize various cathinone derivatives. The present study concluded that by employing a Polydimethylsiloxane Divinylbenzene (PDMS/DVB) coated fiber along with complimentary soft ionization techniques, the volatile components and all parent drugs could be identified within sixteen synthetic cathinone cases.
The second goal of the dissertation was to assess and enhance the detection capabilities of narcotic detection teams. Canine field detection is routinely used to stop the increasing distribution influx of drugs into the United States that go undetected by standard procedures currently employed. Although currently canines can detect a multitude of drugs including heroin, cocaine, MDMA, and methamphetamine; this study revealed that more than ten canine teams (throughout south Florida) were not able to detect the presence of synthetic cathinones with current training material.
While concerns have grown concerning the safety and reliability of canines being trained on various illicit substances, this research aimed to develop a safe, efficient, controlled alternative to training any canine for detection in the form of a Controlled Mimic Permeation System (COMPS). Field examination concluded that 3,4-methylenedioxypriophenone was the odorant responsible for the canine recognition of the cathinone derivative odor. Therefore a mimic training aid was developed and deployed within the field to enhance the detection capabilities of various canine teams.
Identifier
FIDC001965
Recommended Citation
Francis, Vanquilla Shellman, "The Identification of Volatile Organic Compounds from Synthetic Cathinone Derivatives for the Development of Odor Mimic Training Aids" (2017). FIU Electronic Theses and Dissertations. 3370.
https://digitalcommons.fiu.edu/etd/3370
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