Ultra High Definition Optimizing all Analytical Dimensions

Similar documents
Agilent s LC/MS Portfolio and Applications Examples

Agilent Solutions for Ultra-High Performance LC/MS. Ken Miller Global Director of Marketing, LC/MS

Sue D Antonio Application Chemist Cedar Creek, TX

Amadeo R. Fernández-Alba

Benefits and Characteristic Applications of High Resolution GC/MS and LC/MS. Frank David RIC and Ghent University

AB Sciex QStar XL. AIMS Instrumentation & Sample Report Documentation. chemistry

How to Use TOF and Q-TOF Mass Spectrometers

Quantitative Analysis of Drugs of Abuse in Urine using UHPLC Coupled to Accurate Mass AxION 2 TOF Mass Spectrometer

Rapid Screening and Quantitation of Postharvest Fungicides on Citrus Fruits Using AxION DSA/TOF and Flexar SQ MS

Chemical Analysis Business Operations Waters Corporation Milford MA

Cannabinoid Profiling and Quantitation in Hemp Extracts using the Agilent 1290 Infinity II/6230B LC/TOF system

Advancing your Forensic Toxicology Analyses; Adopting the Latest in Mass Spectrometry Innovations

Impact of Chromatography on Lipid Profiling of Liver Tissue Extracts

Quantitative Analysis of Vit D Metabolites in Human Plasma using Exactive System

ANALYTICAL REPORT 1 3C-P (C14H23NO3) 1-(3,5-dimethoxy-4-propoxylphenyl)propan-2-amine.

LC/QTOF Discovery of Previously Unreported Microcystins in Alberta Lake Waters

Sunil Kulkarni Product Specialist Agilent Technologies

Edgar Naegele. Abstract

Targeted and untargeted metabolic profiling by incorporating scanning FAIMS into LC-MS. Kayleigh Arthur

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

Impurity Identification using a Quadrupole - Time of Flight Mass Spectrometer QTOF

Increased Identification Coverage and Throughput for Complex Lipidomes

ANALYTICAL REPORT 1 DPT (C16H24N2) [2-(1H-indol-3-yl)ethyl]dipropylamine.

ANALYTICAL REPORT 1, 2

ANALYTICAL REPORT 1. N-methyl-2AI ( C10H13N) Remark other NPS detected: none. N-methyl-2,3-dihydro-1H-inden-2-amine. Sample ID:

New Solvent Grade Targeted for Trace Analysis by UHPLC-MS

ANALYTICAL REPORT 1, 2

A NOVEL METHOD OF M/Z DRIFT CORRECTION FOR OA-TOF MASS SPECTROMETERS BASED ON CONSTRUCTION OF LIBRARIES OF MATRIX COMPONENTS.

Identification of Imidacloprid Metabolites in Onions Using High Resolution Accurate Mass Spectrometry (LC/Q-TOF MS) and Accurate Mass Tools

Profiling of Endogenous Metabolites Using Time-of-Flight LC/MS with Ion Pair Reverse Phase Chromatography

ANALYTICAL REPORT 5F-MDMB-PINACA (C20H28FN3O3) methyl 2-{[1-(5-fluoropentyl)-1H-indazol-3-yl]formamido}-3,3-dimethylbutanoate

ANALYTICAL REPORT 1. bk-2c-b ( C10H12BrNO3) 2-amino-1-(4-bromo-2,5-dimethoxyphenyl)ethan-1-one

Maximizing chromatographic peak capacity with the Agilent 1290 Infinity LC system

Determination of Multi-Residue Tetracyclines and their Metabolites in Milk by High Performance Liquid Chromatography - Tandem Mass Spectrometry

PosterReprint OVERVIEW

Agilent 6470 Triple Quadrupole LC/MS System and EMR-Lipid. The Combination for Confident Pesticide Quantitation. Christoph Mueller

Application of LC/Electrospray Ion Trap Mass Spectrometry for Identification and Quantification of Pesticides in Complex Matrices

PesticideScreener. Innovation with Integrity

New Mass Spectrometry Tools to Transform Metabolomics and Lipidomics

Agilent 6490 Triple Quadrupole LC/MS System with ifunnel Technology. Ultra sensitive quantitative performance

Bioanalytical Quantitation of Biotherapeutics Using Intact Protein vs. Proteolytic Peptides by LC-HR/AM on a Q Exactive MS

PerkinElmer talks at spring TCJJP Meeting Wednesday, Mar. 14, 2012

DETERMINATION OF CANNABINOIDS, THC AND THC-COOH, IN ORAL FLUID USING AN AGILENT 6490 TRIPLE QUADRUPOLE LC/MS

Direct Analysis of Folic Acid in Digestive Juices by LC/TOF-MS Application

for new contaminants at ultra trace level by using high resolution mass spectrometry

The New 6495 Triple Quadrupole LC/MS

Identification of Ginsenosides Using the SCIEX X500R QTOF System

Rapid Gradient and Elevated Temperature UHPLC of Flavonoids in Citrus Fruit

Separation of Polyphenols by Comprehensive 2D-LC and Molecular Formula Determination by Coupling to Accurate Mass Measurement

Ultra Performance Liquid Chromatography Coupled to Orthogonal Quadrupole TOF MS(MS) for Metabolite Identification

Quantitative Analysis of -Hydroxybutyrate in Hair Using Target Analyte Finding Processing of Comprehensive GC-HRT Data

Moving from targeted towards non-targeted approaches

NON TARGETED SEARCHING FOR FOOD

INTRODUCTION CH 3 CH CH 3 3. C 37 H 48 N 6 O 5 S 2, molecular weight Figure 1. The Xevo QTof MS System.

PHOTOCATALYTIC DECONTAMINATION OF CHLORANTRANILIPROLE RESIDUES IN WATER USING ZnO NANOPARTICLES. DR. A. RAMESH, Ph.D, D.Sc.,

A Simple and Accurate Method for the Rapid Quantitation of Drugs of Abuse in Urine Using Liquid Chromatography

Towards High Resolution MS in Regulated Bioanalysis

Analysis of Pesticides (II) Metribuzin & their metabolites in Rice Jun Yonekubo, Nihon Waters, JAPAN

2D-LC as an Automated Desalting Tool for MSD Analysis

Conflict of Interest Statement

Lipidomic Analysis by UPLC-QTOF MS

Profiling Flavonoid Isomers in Highly Complex Citrus Juice Samples Using UPLC Ion Mobility Time-of-Flight Mass Spectrometry

[ APPLICATION NOTE ] Profiling Mono and Disaccharides in Milk and Infant Formula Using the ACQUITY Arc System and ACQUITY QDa Detector

Improving Selectivity in Quantitative Analysis Using MS 3 on a Hybrid Quadrupole-Linear Ion Trap Mass Spectrometer

Breaking the Sensitivity Barrier in Triple Quad LC/MS Performance

Metabolite identification in metabolomics: Metlin Database and interpretation of MSMS spectra

High resolution mass spectrometry for bioanalysis at Janssen. Current experiences and future perspectives

Characterization of an Unknown Compound Using the LTQ Orbitrap

Mass Spectral Fragmentation Studies of Coumarin-Type Compounds Using GC High-Resolution MS

LC-MS/MS analysis of Chlorates in Milk and Whey Powder using the Agilent 6470 QQQ

High Resolution Glycopeptide Mapping of EPO Using an Agilent AdvanceBio Peptide Mapping Column

Quantitation by High Resolution Mass Spectrometry: Case Study of TOF MS for the Quantitation of Allopurinol from Human Plasma

Metabolite identification in metabolomics: Database and interpretation of MSMS spectra

Simple Method (IS-MRM) to Monitor Lysophospholipids and Phospholipids During LC-MS Method Development via In-Source CID

Food Analysis Applications with Triple Quadrupole LC/MS and TOF LC/MS

MS/MS Library Creation of Q-TOF LC/MS Data for MassHunter PCDL Manager

Sample Preparation is Key

Metabolomic and Proteomics Solutions for Integrated Biology. Christine Miller Omics Market Manager ASMS 2015

[ APPLICATION NOTE ] APPLICATION BENEFITS INTRODUCTION WATERS SOLUTIONS KEYWORDS

Identification of Steroids in Water by Ion Trap LC/MS/MS Application

LC/MS Method for Comprehensive Analysis of Plasma Lipids

Rapid, Simple Impurity Characterization with the Xevo TQ Mass Spectrometer

Dr. Erin E. Chambers Waters Corporation. Presented by Dr. Diego Rodriguez Cabaleiro Waters Europe Waters Corporation 1

O O H. Robert S. Plumb and Paul D. Rainville Waters Corporation, Milford, MA, U.S. INTRODUCTION EXPERIMENTAL. LC /MS conditions

UPLC-HRMS: A tool for multi-residue veterinary drug methods

Application Note. Authors: C. Ledesma, M. Gibert, J.R. Gibert Ingenieria Analitica S.L. Extracts from various food products

Development of a Bioanalytical Method for Quantification of Amyloid Beta Peptides in Cerebrospinal Fluid

Designer Cannabinoids

Evaluation of UHPLC System Performance Under High Throughput Conditions. William Hedgepeth, Masatoshi Takahashi, Shimadzu Scientific Instruments

Christoph Zuth, Alexander L. Vogel, Sara Ockenfeld, Regina Huesmann and Thorsten Hoffmann * S-1. Supporting Information for:

Don t miss a thing on your peptide mapping journey How to get full coverage peptide maps using high resolution accurate mass spectrometry

Qualitative and quantitative determination of phenolic antioxidant compounds in red wine and fruit juice with the Agilent 1290 Infinity 2D-LC Solution

Robust extraction, separation, and quantitation of structural isomer steroids from human plasma by SPE-UHPLC-MS/MS

Determination of Amantadine Residues in Chicken by LCMS-8040

ANALYTICAL REPORT. 1-(1,3-diphenylpropan-2-yl)pyrrolidine (C19H23N) 1-(1,3-diphenylpropan-2-yl)pyrrolidine

A Novel HILIC Column for High Speed N-linked Glycan Analysis

Identification of Imidacloprid Metabolites in Onions Using High Resolution Mass Spectrometry and Accurate Mass Tools

Application Note: 425. Introduction. Goal. Experimental Conditions

High-Throughput Analysis of Oligonucleotides using Automated Electrospray Ionization Mass Spectrometry

CAMAG TLC-MS INTERFACE

Transcription:

Ultra High Definition Optimizing all Analytical Dimensions Sensitivity Dynamic Range Signal Response Linearity Separation Speed Peak Capacity Chromatogram Mass Spectrum Mass Accuracy Resolving Power Acquisition Rate ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

Agilent s New 654 Ultra High Definition Accurate Mass Q-TOF Exceptional accurate mass, sensitivity, dynamic range and resolution perfect match for 9 Infinity UHPLC 5 ppb mass accuracy femtogram sensitivity 5 decades dynamic range 4, resolving power Spectra/sec Excellent Linearity and Isotopic Fidelity Supports Agilent Jet Stream and HPLC-Chip ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

Ion Beam Compression (IBC)* Technology Drives Higher Resolution Compressed and cooled ion beam ensures the best sensitivity performance in high resolution mode Exit from collision cell Into slicer and pulser region Narrowed beam slit enables mass resolution of 4K Up to -fold ion beam compression * Patent pending ASMS 9 UHPLC 654 QTOF lunch and learn Page 3 June 9

654 Ultra High Definition QTOF Maintaining Resolving Power Across the Mass Range 6.8 m/z 6 and isotopes 5 x 5.5 5 4.5 4 6 R=387 9 R=444 R=43674 63.59 64.9 65.47 3.5 5 3.5.5 3 R=38 R=475 8 R=445 R=485 4 R=3933 7 R=377.5 4 6 8 4 6 8 4 6 8 Scan Rate Independent ASMS 9 UHPLC 654 QTOF lunch and learn Page 4 Orbitrap evaluation March June 9

654 Ultra High Definition QTOF Mass Accuracy Repetitive Injections 4pg reserpine on-column, injections +ESI EIC(69.866) Scan Frag=4.V Reserpine_4pgms3.d.5..5.5.75 Counts vs. Acquisition Time (min) Error (ppm) Run.96.7 3.5 4. 5.39 6.3 7. 8.5 9.4.3 Mean.5 Std. Dev.3 5 x..8.6.4. Isotope 69.88 Obs % Calc % Obs m/z Calc m/z Diff (ppm) 69.88 69.866.5 35.87 37.4 6.845 6.8393.5 3 8.58 8.59 6.865 6.867 -.34 4.4.48 6.8987 6.894.75 5.4. 63.9 63.93. 6.845 6.865 6.8987 63.9 69 6 6 6 63 64 5 ppb mass accuracy calibration and very accurate isotopic ratios ASMS 9 UHPLC 654 QTOF lunch and learn Page 5 June 9

654 Ultra High Definition QTOF Sensitivity Full Scan MS Mode- picogram 4 x S/N = 39 RMS Excellent sensitivity, accuracy and resolution at pg on column 3 x Resolution ~ 33, 69.8347 Ratio m/z Diff. Theor. Expt. Theor. Expt. (ppm).. 69.87 69.83.5 37.4 36.36 6.839 6.83.5 8.59 8.39 6.867 6.878.77.48.45 6.894 6.96 5.9 6.8368 6.8779 6.9649..5.5 Counts vs. Acquisition Time (min) 67 68 69 6 6 6 63 64 65 66 ASMS 9 UHPLC 654 QTOF lunch and learn Page 6 June 9

Topics Example: Pesticides in Foods Example: Drug metabolite identification ASMS 9 UHPLC 654 QTOF lunch and learn Page 7 June 9

Pesticides Screening In Foods Accurate-Mass Databases for Comprehensive Screening of Pesticide Residues in Food by Fast Liquid Chromatography Time-of-Flight Mass Spectrometry, Milagros Mezcua, Octavio Malato, Juan F. García-Reyes, Antonio Molina-Díaz, and Amadeo R. Fernández-Alba, Anal. Chem., 9, 8 (3), 93-99 DOI:./ac84t Method for screening 97 pesticides in foods with Agilent HPLC, 4.6 x 5 mm XDB-C8,.8 µm column, and TOF-MS detection Component identification using accurate mass/retention time (AMRT) matching against a database.6 ml/min flow rate, minute gradient, approximately 3 minutes run time Comparable method performance when tested on 6 commercial produce samples (QuEChERS protocol sample prep) and compared with results from QQQ [note: 45/6 samples tested positive!] Identified several pairs of isobaric coeluting species (ICS) which have similar retention times and accurate mass values for their adduct ions or fragments ASMS 9 UHPLC 654 QTOF lunch and learn Page 8 June 9

Experimental Conditions For Pesticides Isobaric Coeluting Species Analysis Configuration 9 Infinity UHPLC, 654 QTOF with Agilent jet stream technology Eclipse Plus C8 column,. x 5 mm or mm,.8 µm Analysis conditions A =.% formic acid in water, B =.% formic acid in ACN; various flow rates (.,.,.5 ml/min); 6 ºC column temperature Gradient = 5% B to 95% B in various times (.5, 3, 7, 8.5, 7 minutes) 3 m/z maximum mass, high resolution mode MS mode: - m/z, various acquisition rates (, 5, 3, scans/second) ASMS 9 UHPLC 654 QTOF lunch and learn Page 9 June 9

RRLC UHPLC x 6.5 ml/min. x mm column, 6 ºC, max pressure 4 bar x 5.5. ml/min. x mm column, 6 ºC, max pressure 78 bar x 5. ml/min. x mm column, 6 ºC, max pressure 93 bar x 5.5. ml/min. x 5 mm column, 6 ºC, max pressure 5 bar 3 4 5 6 7 8 9 3 4 5 6 Counts vs. Acquisition Time (min) ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

Mass Accuracy And Mass Resolution And Analysis Speed Simultaneously x 5.5.5 x 6.5 3.498 spectra/second 3 4 5 6 7 8 9 3 4 5 6 Counts vs. Acquisition Time (min) spectrum/second.5.5 x 4.7 44.387.6.5.4.3...9.8.7.6.5.4.3.. -.6 ppm R = 3,6 45.667 O H 3 C CH 3 O O O 46.997 47.36 4 4.5 43 43.5 44 44.5 45 45.5 46 46.5 47 47.5 48 N N O azoxystrobin N 8.7 3 4 5 6 7 8 9 3 4 5 6 Counts vs. Acquisition Time (min) x 5.7 44.395.6.5.4.3...9.8.7.6.5.4.3.. 45.694 -.37 ppm R = 3,4 46.956 47.39 48.3 4 4.5 43 43.5 44 44.5 45 45.5 46 46.5 47 47.5 48 Page ASMS 9 UHPLC 654 QTOF lunch and learn June 9

Mass Accuracy Is Invariant With Acquisition Rate Pesticides Example ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

MS Resolution Is Invariant With Acquisition Rate Pesticides Example ASMS 9 UHPLC 654 QTOF lunch and learn Page 3 June 9

Isobaric Coeluting Species (ICS) Definitions Isobaric pairs whose diagnostic ions differ in mass by between. Da and. Da Formula m/z Compound ppm difference C9H7N3S 9.433 a tricyclazole C9H6ClN5 9.667 b propazine F Cl 37 3 C4HNO4 6.74 a diethofencarb F C4H5N3 6.339 b cyprodinil 7 C5H8ClN3O 94.8 3a cyproconazole Cl 37 C5HClN3O 94.368 3b paclobutrazol 63 C3HClF4N3O 37.88 4a tetraconazole CH3N3O4 37.979 4b Azoxystrobin F 86 Co-eluting not clear, but pairs whose retention times differ by less than approximately. minutes under the analysis conditions (-3x peak width at half height)

Group : Identify Them By Differences In RT x 4 8 7 55.7 Propazine (fragment) 6 5 4 3 Tricyclazole 39. 5 5 5 3 35 4 45 5 55 6 65 7 75 8 85 Counts vs. Acquisition Time (sec) ASMS 9 UHPLC 654 QTOF lunch and learn Page 5 June 9

Group : Diethocarb Fragment And Cyprodinil Identify By Difference In Accurate Mass EICs Hypothetical complete coelution (average spectrum) x 5..5.95.9.85.8.75.7.65.6.55.5.45.4.35.3.5..5..5 cyprodinil 56. 57. diethofencarb fragment 5 5.5 53 53.5 54 54.5 55 55.5 56 56.5 57 57.5 58 58.5 59 59.5 6 6.5 Counts vs. Acquisition Time (sec) x 4.7.6.5.4.3...9.8.7.6.5.4.3...9.8.7.6.5.4.3.. diethofencarb fragment -.99 ppm error 6 mda difference (7 ppm) 6.75 6.33883 Cyprodinil -.3 ppm error 6.6 6.8 6. 6. 6.4 6.6 6.8 6. ASMS 9 UHPLC 654 QTOF lunch and learn Page 6 June 9

ICS Group 3: Identify These Pesticides By RT And Accurate Mass x 4.8.6.4..8.6.4.. By retention time paclobutrazol 4.357 cyproconazole- 37 Cl 4.43 4.457 4.8 4. 4. 4.4 4.6 4.8 4.3 4.3 4.34 4.36 4.38 4.4 4.4 4.44 4.46 4.48 4.5 4.5 4.54 4.56 Counts vs. Acquisition Time (min) N N N OH CH 3 H Cl N N N H CH 3 OH Cl x 4.4. By accurate mass value 94.3659..8.6.4. of the monoisotopic peak cyproconazole- 37 Cl Cyproconazole- -.85 ppm 37 Cl R = 468 94.79 8 mda separation (63 ppm) paclobutrazol paclobutrazol -.63 ppm R = 76 94 94. 94.4 94.6 94.8 94. 94. 94.4 94.6 94.8 94. 94. ASMS 9 UHPLC 654 QTOF lunch and learn Page 7 June 9

ICS Group 3: Average The Two Peaks Into A Single Spectrum x 3.6 94.36473.4. Paclobutrazol -.99 ppm.8.6.4..8.6.4. Cyproconazole- 37 Cl -.59 ppm 94.7994 8 mda separation (63 ppm) 94.7 94.8 94.9 94. 94. 94. 94.3 94.4 94.5 94.6 94.7 94.8 94.9 94. 94. ASMS 9 UHPLC 654 QTOF lunch and learn Page 8 June 9

ICS Group 3: Identify These Pesticides By Isotopic Pattern And Mass x 3 3.5 3.5 cyproconazole 9.9.5.5 94.79 93.384 95.4 89 9 9 9 93 94 95 96 97 98 99 3 3 x 4..8 paclobutrazol 94.3659.6.4. 96.3354 95.3984 97.379 98.397 89 9 9 9 93 94 95 96 97 98 99 3 3 ASMS 9 UHPLC 654 QTOF lunch and learn Page 9 June 9

ICS Group 4: Identify Them By Differences In RT Or Accurate Mass x 3 9 9. 8. 7 6 5 4 3. By retention time Azoxystrobin (fragment) 84.6. Tetraconazole PWHM ~. sec 55 6 65 7 75 8 85 9 95 3 35 3 35 3 35 Counts vs. Acquisition Time (sec) x 3 6 5 4 3. By accurate mass value of the monoisotopic peak Tetraconazole 37.85 R = 8458 -.8 ppm 37.977 R = 8394 -.54 ppm 69 mda separation (86 ppm) Azoxystrobin (fragment) 37.85 37.9 37.95 37 37.5 37. 37.5 37. 37.5 37.3 ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

ICS Group 4: Identify Them By Differences In Isotopic Pattern x 3 8 7 6 5 4 3 Azoxystrobin (fragment) 37.977 373.4 374.34 37.5 37 37.5 37 37.5 373 373.5 374 374.5 375 375.5 376 376.5 377 x 3 8 Tetraconazole 37.85 7 6 5 4 3 373.34 374.57 375.84 376.6 37.5 37 37.5 37 37.5 373 373.5 374 374.5 375 375.5 376 376.5 377 ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

ICS Summary Formula m/z Compound ppm difference Identify by C9H7N3S 9.433 a tricyclazole C9H6ClN5 9.667 b propazine F Cl 37 3 RT difference C4HNO4 6.74 a diethofencarb F C4H5N3 6.339 b cyprodinil 7 MS difference C5H8ClN3O 94.8 3a cyproconazole Cl 37 C5HClN3O 94.368 3b paclobutrazol 63 MS difference C3HClF4N3O 37.88 4a tetraconazole CH3N3O4 37.979 4b Azoxystrobin F 86 MS difference ASMS 9 UHPLC 654 QTOF lunch and learn Page June 9

Final Fast Analysis: ICS ( ppb) In Red Pepper Matrix x 6.4.3...9.8.7.6.5.4.3... x 5 mm Eclipse Plus C8. ml/min, 6 ºC 4 6 8 4 6 8 4 6 8 3 3 34 36 38 4 4 44 46 48 5 5 54 56 58 6 6 64 66 68 7 7 74 76 78 8 8 84 86 88 Counts vs. Acquisition Time (sec) Name RT Mass Mass (Tgt) Diff (Tgt, ppm) Score (Tgt) a tricyclazole.65 89.3675 89.3668.57 98. b propazine.99 9.9356 9.943 -.9 97.5 a diethofencarb.953 67.46937 67.4758 -.45 85.49 b cyprodinil.936 5.66 5.6598. 98.8 3a cyproconazole.95 9.46 9.384.9 97.9 3b paclobutrazol.93 93.9448 93.949 -.4 96.74 4a tetraconazole.97 37.9 37.53 -.65 99.45 4b azoxystrobin.957 43.6637 43.68 -.45 99.9 a 5 pg on-column x 5.9.8.7.6.5.4.3.. 3b b 3a b a 53.5 54 54.5 55 55.5 56 56.5 57 57.5 58 58.5 59 Counts vs. Acquisition Time (sec) 4b 4a 4 6 8 4 6 8 4 6 8 3 3 34 36 38 4 4 44 46 48 5 5 54 56 58 6 6 64 66 68 7 7 74 76 78 8 8 84 86 88 Counts vs. Acquisition Time (sec) ASMS 9 UHPLC 654 QTOF lunch and learn Page 3 June 9

Experimental Conditions For Verapamil Metabolite ID Analysis Configuration 9 Infinity UHPLC, 654 QTOF with Agilent jet stream technology Eclipse Plus C8 column,. x 5 mm,.8 µm Analysis conditions A =.% formic acid in water, B =.% formic acid in ACN;. ml/min; 6 ºC column temperature Gradient = 5% B to 95% B in. minute, stoprun.5 minutes, postrun.5 minutes 7 m/z maximum mass, extended dynamic range mode MS mode: - m/z, 3 scans/second ASMS 9 UHPLC 654 QTOF lunch and learn Page 4 June 9

Verapamil: Major And Minor Metabolites (Phase I) x 6 TIC verapamil x 5 5 desmethyl x 4 5.5 x 5 monohydroxy dihydroxy x 3 Isopropyl dealkylation..5..5.3.35.4.45.5.55.6.65.7.75.8.85.9.95.5..5..5.3.35.4.45 Counts vs. Acquisition Time (min) ASMS 9 UHPLC 654 QTOF lunch and learn Page 5 June 9

Coeluting Metabolites With Parent Drug: Need Wide Dynamic Range Five decades of response in a single scan verapamil dihydroxy metabolite of verapamil 6 x.8 455.93.6 counts.4..8.6.4..8.6.4..68 million desmethyl metabolite 44.7474 monohydroxy metabolite 47.8487 487.798 435 44 445 45 455 46 465 47 475 48 485 49 495 5 55 x 4 3.5 3.5.5.5 4 counts 487.798 488.834 5 counts 489.9744 49.8383 486.8585 489.848653 486.5 487 487.5 488 488.5 489 489.5 49 49.5 ASMS 9 UHPLC 654 QTOF lunch and learn Page 6 June 9

Metabolite ID Results ASMS 9 UHPLC 654 QTOF lunch and learn Page 7 June 9

Summary Unmatched chromatographic peak capacity and resolving power can even resolve diastereomers when parameters are adjusted appropriately Superb MS mass accuracy and resolution invariant with acquisition rate Sophisticated identification software and algorithms handle complex samples, overlapping isotopic patterns Sum (product?) is greater than the parts Run faster chromatography for higher throughput MS can keep up without sacrificing resolution MS can keep up without sacrificing mass accuracy MS has the dynamic range to handle coeluting peaks Software has the power to identify components of complex chromatograms and spectra Result: more information and results per analysis and per unit time