在合法市场产品吸入前后,用撞击过滤装置收集呼吸气溶胶中的四氢大麻酚——一项试点研究。

IF 3.7 4区 医学 Q1 BIOCHEMICAL RESEARCH METHODS
Kavita M Jeerage, Cheryle N Beuning, Adam J Friss, L Cinnamon Bidwell, Tara M Lovestead
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引用次数: 2

摘要

一种基于精神活性大麻素Δ9-tetrahydrocannabinol (THC)定量的准确大麻呼气测醉器可能是阻止酒后驾驶的重要工具。这样的装置不存在。简单地解释酒精呼气测醉仪的知识是不够的,因为乙醇是作为蒸气检测的。四氢大麻酚具有极低的挥发性,据推测是由肺表面活性剂形成的气溶胶颗粒在呼吸中携带的。呼出的气溶胶可以从静电过滤装置中回收,但多项研究的一致定量结果尚未得到证实。我们使用了一种简单使用的嵌套过滤装置,在参与者吸食含有25% Δ9-tetrahydrocannabinolic酸的合法市场大麻花之前和之后收集他们的呼吸气溶胶。在吸食大麻前15分钟(吸食基线-吸食)和吸食大麻后1小时(吸食后)在联邦政府规定的移动实验室进行呼吸收集。大麻是在参与者的住所使用的。参与者被要求遵循一种旨在增加气溶胶产生的呼吸动作。采用液相色谱-串联质谱法对呼气提取物进行分析,并对分析物及其氘化内标进行多重反应监测。在一年多的时间里,从18名参与者中收集了42份呼吸样本,并分六批进行了分析。在31%的基线摄入、36%的基线实验和80%的使用后1小时呼吸提取液中,四氢大麻酚被量化。使用后1小时观察到的数量与其他六项试点研究报告的数量进行了比较,这些研究在使用大麻后以已知间隔取样呼吸,并就参与者特征和呼吸取样方案进行了讨论。为了开发有意义的大麻呼气测醉器技术,有必要进行规模更大的研究,验证戒断行为和更多的使用后时间点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

THC in breath aerosols collected with an impaction filter device before and after legal-market product inhalation-a pilot study.

THC in breath aerosols collected with an impaction filter device before and after legal-market product inhalation-a pilot study.

THC in breath aerosols collected with an impaction filter device before and after legal-market product inhalation-a pilot study.

THC in breath aerosols collected with an impaction filter device before and after legal-market product inhalation-a pilot study.

An accurate cannabis breathalyzer based on quantitation of the psychoactive cannabinoid Δ9-tetrahydrocannabinol (THC) could be an important tool for deterring impaired driving. Such a device does not exist. Simply translating what is known about alcohol breathalyzers is insufficient because ethanol is detected as a vapor. THC has extremely low volatility and is hypothesized to be carried in breath by aerosol particles formed from lung surfactant. Exhaled breath aerosols can be recovered from electrostatic filter devices, but consistent quantitative results across multiple studies have not been demonstrated. We used a simple-to-use impaction filter device to collect breath aerosols from participants before and after they smoked a legal market cannabis flower containing ∼25% Δ9-tetrahydrocannabinolic acid. Breath collection occurred at an intake session (baseline-intake) and four weeks later in a federally-compliant mobile laboratory 15 min before (baseline-experimental) and 1 h after cannabis use (post-use). Cannabis use was in the participant's residence. Participants were asked to follow a breathing maneuver designed to increase aerosol production. Breath extracts were analyzed by liquid chromatography with tandem mass spectrometry with multiple reaction monitoring of two transitions for analytes and their deuterated internal standards. Over more than 1 yr, 42 breath samples from 18 participants were collected and analyzed in six batches. THC was quantified in 31% of baseline-intake, 36% of baseline-experimental, and 80% of 1 h post-use breath extracts. The quantities observed 1 h post-use are compared to those reported in six other pilot studies that sampled breath at known intervals following cannabis use and are discussed with respect to participant characteristics and breath sampling protocols. Larger studies with verified abstinence and more post-use timepoints are necessary to generate statistically significant data to develop meaningful cannabis breathalyzer technology.

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来源期刊
Journal of breath research
Journal of breath research BIOCHEMICAL RESEARCH METHODS-RESPIRATORY SYSTEM
CiteScore
7.60
自引率
21.10%
发文量
49
审稿时长
>12 weeks
期刊介绍: Journal of Breath Research is dedicated to all aspects of scientific breath research. The traditional focus is on analysis of volatile compounds and aerosols in exhaled breath for the investigation of exogenous exposures, metabolism, toxicology, health status and the diagnosis of disease and breath odours. The journal also welcomes other breath-related topics. Typical areas of interest include: Big laboratory instrumentation: describing new state-of-the-art analytical instrumentation capable of performing high-resolution discovery and targeted breath research; exploiting complex technologies drawn from other areas of biochemistry and genetics for breath research. Engineering solutions: developing new breath sampling technologies for condensate and aerosols, for chemical and optical sensors, for extraction and sample preparation methods, for automation and standardization, and for multiplex analyses to preserve the breath matrix and facilitating analytical throughput. Measure exhaled constituents (e.g. CO2, acetone, isoprene) as markers of human presence or mitigate such contaminants in enclosed environments. Human and animal in vivo studies: decoding the ''breath exposome'', implementing exposure and intervention studies, performing cross-sectional and case-control research, assaying immune and inflammatory response, and testing mammalian host response to infections and exogenous exposures to develop information directly applicable to systems biology. Studying inhalation toxicology; inhaled breath as a source of internal dose; resultant blood, breath and urinary biomarkers linked to inhalation pathway. Cellular and molecular level in vitro studies. Clinical, pharmacological and forensic applications. Mathematical, statistical and graphical data interpretation.
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