SWATH Acquisition Enables the Ultra-Fast and Accurate Determination of Novel Synthetic Opioids

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SWATH Acquisition Enables the Ultra-Fast and Accurate Determination of Novel Synthetic Opioids Data Independent Acquisition on TripleTOF and X-Series QTOF Systems for Seized Drug Analysis Oscar G. Cabrices 1, Alex J. Krotulski 2, Tais R. Fiorentin 2, Barry K. Logan 2 and Adrian M. Taylor 3 1 SCIEX, USA; 2 The Center for Forensic Science Research and Education at the Fredric Rieders Family Foundation, USA; 3 SCIEX, Canada. Novel synthetic opioids continue to cause widespread intoxications resulting in fatalities worldwide. As these compounds continue to surge within society, their timely and accurate detection is crucial to forensic investigators. Analysis of seized powders is highly contingent on specific and sensitive screening applications. The combination of LC separations with SWATH Acquisition, on a TripleTOF or XR system, gives forensic investigators a higher level of confidence in modern, synthetic opioid characterization by reliably obtaining comprehensive MS/MS spectral fragment information on every detectable component in the sample. Furthermore, it permits high throughput sample analysis, which can help reduce case backlog. In this technical note, the use of SWATH Acquisition for the ultra-fast and accurate identification of novel synthetic opioids present in different seized drug samples was evaluated, and compared to typical analysis. Features of SWATH Acquisition for Forensic Drug Chemistry Analysis SWATH Acquisition helps the forensic investigator to quickly identify every component present in a seized illicit substance, whether at low or high concentration. As a data independent acquisition strategy, the forensic investigator can collect MS and MS/MS information on every detectable peak within the acquired mass range, giving the option to comprehensively re-interrogate the sample data should new questions arise in the future. SWATH Acquisition utilizes universal MS acquisition settings, requiring little to no method development to identify numerous compounds present in a seized sample in a single run. Unknown seized powder Cyclopropylfentanyl MS/MS Library Match:1% 3 minute substance ID through Figure 1. Obtain High Quality MS/MS Spectra with Confident Identification of Synthetic Drugs within a Single Workflow. Extracted ion chromatogram (XIC) (top) of an unknown seized powder was obtained using a 3 minute LC-MS method using SWATH Acquisition. Using the formula finder and MS/MS spectral library search, the novel opioid cyclopropylfentanyl was accurately identified. p 1

Figure 2. MS/MS ALL with SWATH Acquisition. In this workflow, instead of the quadrupole (Q1) transmitting a narrow mass range through to the collision cell, a wider window containing more analytes is passed. This produces a richer MS/MS spectrum which is a composite of all the analytes within that Q1 m/z window. This MS/MS is performed across the full m/z range of target compounds, ensuring MS/MS is collected on every detectable compound. Because the fragment ions are generated using high resolution acquisition, detected compounds can be accurately identified. Experimental Details Sample Preparation: Powder drug samples, seized as part of forensically relevant investigations, were aliquoted into standard autosampler vials and diluted with 1 ml of methanol, followed by vortex mixing to ensure homogeneity. Subsequently, these samples were diluted 1:1 in LC mobile phase prior to LC/QTOF analysis. Table 1: Data acquisition parameters used for the analysis of seized drugs samples Parameter Electrospray Ionization Precursor Ion Acquisition SWATH Acquisition Set Point Positive TOF MS Liquid Chromatography: An HPLC gradient separation was performed at 3 C on a Phenomenex Kinetex C1 column ( 3 mm, 2.6µm). Ammonium formate in water (1 mm, ph 3) and methanol/acetonitrile (:) with.1% formic acid were used as mobile phase. The LC flow rate was. ml/min and the LC runtime was 3 minutes. Injection volume was 1 L. TOF MS Scan Range Candidate Ions per Cycle Collision Energy Product Ion Acquisition Q1 Isolation Windows 1-1 Da All 3± ev SWATH Acquisition Variable: 6-34 Da Mass Spectrometry: MS and MS/MS data were collected using on the SCIEX TripleTOF 6+ System with SCIEX Analyst TF software 1.6, each SWATH Acquisition scan beginning with a TOF MS experiment. Acquisition parameters are detailed in Table 1. Data analysis: Confidence settings and screening criteria Targeted data processing was performed using MasterView Software 1.1 and PeakView Software 2.2 for positive analyte identification based on previously determined criteria. Four main confidence criteria were used including mass error (M), retention time shift (R), isotope ratio difference (I), and library score (L). Fragment Scan Range 4-1 Da Subsequently, a combined score (C) was computed based on these four confidence categories (MRIL) with custom weightings. Finally, when there was no comparison sample (blank sample or sample spiked with drugs at reference level), the absolute peak intensity was used as additional criteria to help reduce false positive results. p 2

XIC Ret Time: 2.1min TOF-MS U-477 MS/MS Library Score:1% Figure 3. Quickly Retrieve Analyte Specific Information Present in an Unknown Powder. View of all novel psychoactive substances and other adulterants present in a powder sample by MasterView Software (Top). XICs of all compounds identified in the sample, showcasing TOF MS and MS/MS spectrum identification of the novel opioid U-477 using spectral library search (Bottom). Fast Identification of Multiple Compounds Present in Seized Drug Samples Using SWATH Acquisition for analysis of dilute-and-shoot seized drug samples, several novel synthetic opioids, as well as other drugs of abuse, were successfully identified. Figure 3 highlights a sample positive for U-477, furanylfentanyl, and fentanyl, as well as heroin drug constituents, alprazolam, and other adulterating agents. Despite the ultra-fast sample acquisition run times, the MS/MS collected using variable window SWATH Acquisition had high resolution and mass accuracy, enabling the accurate identification of all components present in the seized drug sample. U-477 and fentanyl, in particular, were accurately identified, within the same SWATH Acquisition Q1 isolation window, even though these components share similar retention times and have closely related precursor ions (329 and 337 Da, respectively). High quality of MS/MS spectra was generated, and the combined score of 9.9% was obtained for U-47 and 9.1% for fentanyl. High Quality MS/MS Leads to Accurate Compound Characterization SWATH Acquisition generates comprehensive and high-quality MS/MS spectra, which enables reliable compound fragmentation for easy spectral library database searching. Figure 4 shows the XIC of a seized drug sample indicating the presence of an illicit compound at.6 min. The MS/MS spectrum at that retention time generated two potential candidates for positive identification: 6-monoacetylmorphine (6- MAM) and naloxone. These two analytes are isobaric species with high incidences of presence in seized drug powders and toxicological casework samples. The high-quality MS/MS fragmentation generated from SWATH Acquisition enabled the positive identification of 6-MAM (1% library score) instead of Naloxone (7.9% library score). This principle of identification of co-eluting species based on high resolution accurate fragment ion masses would not be feasible using less specific analytical approaches like unit resolution mass spectrometry or molecular spectroscopy. p 3

XIC Ret Time:.6 min 6-MAM MS/MS: 1% Naloxone MS/MS: 7.9% Figure 4. Minimizing False Positives by Obtaining High Quality MS/MS Spectra. MasterView software lists isobaric compounds identified in a powder sample (top), for which the XIC is displayed (middle). MS/MS spectra comparison between 6-MAM (bottom left) and Naloxone (bottom right) indicates significant fragmentation differences that enables the positive identification of 6-MAM through the confirmation using spectral libraries. Enhanced Synthetic Opioid Detection with SWATH Acquisition in Comparison to Other Analytical Approaches 1 16 14 1 1 3 As part of this comprehensive study, more than seized drug samples, prepared via dilute-and-shoot, were analyzed and compared using SWATH Acquisition and acquired by full scan mode. Analytes identified by each method were compared side by side, and the unidentified compounds by a specific instrument were tallied. 6 4 1 Number of Novel Opioids Identif A subset of seized drug samples obtained within a geographical 1 region was further analyzed in this comparative study. It was 16 determined that more than 14 1% of the overall targets were missed by analysis, 1 but positively identified by SWATH Acquisition. When further 1evaluating this gap, it was found that in comparison of novel opioid identification, more than 34% of novel opioids were missed 6 by (e.g. furanylfentanyl) (Figure ). 4 A chart displaying an overall list of the different opioids found in this comprehensive study is detailed in Figure 6. Other analytes missed by but positively identified by SWATH Acquisition included novel stimulants and other psychoactive substances. 3 1 Number of Novel Synthetic Opioids Identified with Number of Novel Synthetic Opioids Identified with Figure. SWATH Acquisition Leads to Increased Compound Identification. (Top) Comparison chart shows a higher number of positively identified substances with SWATH Acquisition (green) in comparison to (blue). Nine opioids were found in the SWATH Acquisition data but missed by (Bottom). 4 4 3 3 1 Overall L sam 3 41 p 4

Conclusions The combination of ultra-fast LC separations with SWATH Acquisition provides forensic investigators quick and reliable identification of novel synthetic opioids present in seized drug samples. 4 4 3 3 Overall List of Opioids Identified in seized drug samples using 41 3 42 2 27 Using data independent acquisition strategies, several novel synthetic opioids, as well as other drugs of abuse, were successfully characterized. 1 3 2 6 7 4 4 SWATH Acquisition generated comprehensive and high-quality MS/MS spectra, enabling reliable compound fragmentation comparison to library spectra for confident drug identification. Due to the comprehensive nature of SWATH Acquisition, improved novel synthetic opioid detection was achieved in comparison to. Figure 6. Overall List of Opioids Identified in a Larger Sample Cohort. More than seized samples were analyzed with this diluteand-shoot SWATH acquisition strategy. All of these opioids were accurately identified using the SWATH Acquisition workflow across the comprehensive study. AB Sciex is doing business as SCIEX. 17 AB Sciex. For Research Use Only. Not for use in diagnostic procedures. The trademarks mentioned herein are the property of AB Sciex Pte. Ltd. or their respective owners. AB SCIEX is being used under license. Document number: RUO-MKT-2-72-A p