The world leader in serving science. Jonathan L. Josephs and Aaron O. Bailey. Life Sciences Mass Spectrometry

Similar documents
Introducing the Thermo Scientific Q Exactive HF-X and ZipChip Technology for BioPharma Applications

A comprehensive CE/ESI-MS solution for BioPharma applications

Monoclonal Antibody Characterization on Q Exactive and Oribtrap Elite. Yi Zhang, Ph.D Senior Proteomic Marketing Specialist Oct.

Antibody subunit analysis workflow on a quadrupole-orbitrap mass spectrometer: from optimized sample preparation to data analysis

Characterization of intact monoclonal antibody with microfluidic chip electrophoresis mass spectrometry

Put the PRO in Protein Characterization

Chromatographic Workflows for Biopharmaceutical Characterization

Thermo Scientific Solutions for Intact-Protein Analysis. Better, Faster Decisions for. Biotherapeutic Development

A Complete Workflow Solution for Intact Monoclonal Antibody Characterization Using a New High-Performance Benchtop Quadrupole- Orbitrap LC-MS/MS

ADVANCING ATTRIBUTE CONTROL OF ANTIBODIES AND ITS DERIVATIVES USING HIGH RESOLUTION ANALYTICS

Analysis of Monoclonal Antibodies and Their Fragments by Size Exclusion Chromatography Coupled with an Orbitrap Mass Spectrometer

Complete characterization of a lysine-linked antibody drug conjugate by native LC/MS intact mass analysis and peptide mapping

Workflows for the Characterization of Glycan structure on Biotherapeutics

Simple, Robust, High Quality Intact Mass Analysis A Biosimilars Case Study

Precise Characterization of Intact Monoclonal Antibodies by the Agilent 6545XT AdvanceBio LC/Q-TOF

Advanced Characterization of Antibody Drug Conjugates (ADCs) by Liquid Chromatography and Mass Spectrometry (LC/MS) John Gebler, Ph.D.

ZipChip TM. Microfluidic CE-ESI Biotherapeutics CE-ESI-MS Applications. Please visit us at

Biochromatography Bring more Zen into your life and laboratory

Isotopic Resolution of Chromatographically Separated IdeS Subunits Using the X500B QTOF System

A High Resolution Bench-Top Orbitrap LC-MS Workflow Solution for Comprehensive Intact Monoclonal Antibody Characterization

ZipChipTM. Microfluidic CE-ESI Chip Separations Biotherapeutics. March // Actionable Intelligence HPMS & On-board Analytics / Slide 1

Answers, Simple and Streamlined. Solutions for Biotherapeutic Intact Mass Analysis

Enabling routine characterization of proteins. Agilent MassHunter BioConfirm software

ProMass HR Applications!

IdeS-cleaved mab subunit analysis with LC-HRAM-MS: a quick and accurate comparison of biosimilar and originator biotherapeutics

Fourier-Transform MS for Top Down Proteomics

Thermo Scientific Q Exactive HF Orbitrap LC-MS/MS System. Higher-Quality Data, Faster Than Ever. Speed Productivity Confidence

Analysis of Monoclonal Antibodies and Their Fragments by Size-Exclusion Chromatography Coupled with an Orbitrap Mass Spectrometer

Ensure your Success with Agilent s Biopharma Workflows

PLRP-S Polymeric Reversed-Phase Column for LC/MS Separation of mabs and ADC

mabs and ADCs analysis by RP

Thermo Scientific Peptide Mapping Workflows. Upgrade Your Maps. Fast, confident and more reliable peptide mapping.

The Overview of LC-MS Quantitative Solutions for Biotherapeutic Analysis

Comparability Analysis of Protein Therapeutics by Bottom-Up LC-MS with Stable Isotope-Tagged Reference Standards

Proteins. Patrick Boyce Biopharmaceutical Marketing Manager Waters Corporation 1

LC-MS Analysis of Digested mabs Using a Reversed-Phase Desalting Cartridge and High-Resolution, Accurate Mass Spectrometry (HRAMS)

Solutions for the Core and Protein Laboratory: MassHunter Walkup

Application Note # ET-20 BioPharma Compass: A fully Automated Solution for Characterization and QC of Intact and Digested Proteins

Characterization of a fusion protein under native and denaturing conditions with maxis II

mab and ADC Analysis Shanhua Lin, Ph.D. The world leader in serving science

Profiling Glycosylation of Monoclonal Antibodies at Three Levels Using the Agilent 6545XT AdvanceBio LC/Q TOF

Comprehensive characterization of three IgG forms using CESI-MS

Fast and Efficient Peptide Mapping of a Monoclonal Antibody (mab): UHPLC Performance with Superficially Porous Particles

UHPLC for Large Bio-Therapeutics

Utilizing novel technology for the analysis of therapeutic antibodies and host cell protein contamination

Structure Characterization and Differentiation of Biosimilar and Reference Products Using Unique Combination of Complementary Fragmentation Mechanisms

Abstract. Authors. BioPharma Compass. Antibody drug conjugate (ADC) mabs Native MS Subunits Intact protein analysis Drug antibody ratio (DAR)

Challenges in peptide mapping mass spectrometry of biopharmaceuticals

High-Throughput Peptide Mapping with the Vanquish UHPLC System and the Q Exactive HF Mass Spectrometer

Separation of Native Monoclonal Antibodies and Identification of Charge Variants:

Advantages of Ion Mobility QTOF for Characterization of BioPharma Molecules

MAbPac RP Column. High-performance reverse phase chromatography column for monoclonal antibody analysis

Advanced QA/QC characterization MS in QC : Multi Attribute Method

A highly sensitive and robust 150 µm column to enable high-throughput proteomics

Columns for Biomolecules BioLC Column Lines

Biotherapeutic Non-Reduced Peptide Mapping

LC/MS Based Quantitation of Intact Proteins for Bioanalytical Applications

ZipChip TM. Microfluidic CE-ESI Utility Life Sciences CE-ESI-MS Applications. Please visit us at

Highly Confident Peptide Mapping of Protein Digests Using Agilent LC/Q TOFs

Chapter 1. Primary Structure. See for options on how to legitimately share published articles.

Ligand Binding Mass Spectrometric Immunoassay (LB-MSIA ) Workflow with Deglycosylation for Therapeutic Antibodies

Development of Analysis Methods for Therapeutic Monoclonal Antibodies Using Innovative Superficially Porous Particle Biocolumns

Thermo Scientific MAbPac HIC Columns. Novel Hydrophobic Interaction HPLC Columns. Designed for Monoclonal Antibody Analysis

Degradation pathways analysis of adalimumab drug product performed using native intact CVA-MS

Overview of Waters Solutions for Biopharmaceutical Analysis and Characterization

Rapid Peptide Mapping via Automated Integration of On-line Digestion, Separation and Mass Spectrometry for the Analysis of Therapeutic Proteins

Characterize Fab and Fc Fragments by Cation-Exchange Chromatography

PAVING THE WAY FOR ASSESSING IN VIVO DYNAMICS OF MULTIPLE QUALITY ATTRIBUTES FOR PROTEIN THERAPEUTICS

Key Words Q Exactive Focus, SIEVE Software, Biomarker, Discovery, Metabolomics

More Capabilities, New Possibilities in Mass Spectrometry

Application Note. Kwasi Antwi, Amanda Ribar, Urban A. Kiernan, and Eric E. Niederkofler Thermo Fisher Scientific, Tempe, Arizona

The clearly better choice

LTQ Orbitrap XL Hybrid FT Mass Spectrometer Unrivaled Performance and Flexibility

Improve Efficiency of Variant Screening for Biological Drugs. Guillaume Tremintin, Market Area Manager, Biopharma Bruker Daltonics, Fremont, CA

Rapidly Characterize Antibody- Drug Conjugates and Derive Drug-to-Antibody Ratios Using LC/MS

Thermo Scientific Ligand Binding Mass Spectrometric Immunoassay (LB-MSIA)

Application Note. Author. Abstract. Biotherapeutics and Biologics. Sonja Schneider Agilent Technologies, Inc. Waldbronn, Germany

Detecting Challenging Post Translational Modifications (PTMs) using CESI-MS

Proteomics. Proteomics is the study of all proteins within organism. Challenges

Top-Down Sequencing and Charge-Reduction Mass Spectrometry of Proteins in their Native State

Simultaneous Quantitation of a Monoclonal Antibody and Two Proteins in Human Plasma by High Resolution and Accurate Mass Measurements

Agilent 6545XT AdvanceBio LC/Q-TOF System DESIGNED FOR BIOPHARMA

autoflex max Practical Power, Maximum Utility Innovation with Integrity MALDI-TOF MS

Improved Analysis of Biopharmaceutical Samples Using an MS-only Orbitrap Mass Spectrometer

Application Note. Authors. Abstract. Ravindra Gudihal Agilent Technologies India Pvt. Ltd. Bangalore, India

CaptiveSpray nanobooster

Biotherapeutic Peptide Mapping Information Dependent Acquisition (IDA) Method

Accelerate mab Characterization Using Automated Sample Prep

Fast Online Desalting of mabs Using a Reversed-Phase Desalting Cartridge for LC-MS Analysis

Analysis of Intact Monoclonal Antibodies Using an M3 MicroLC with the TripleTOF 6600

Analysis of Monoclonal Antibody (mab) Using Agilent 1290 Infinity LC System Coupled to Agilent 6530 Accurate-Mass Quadrupole Time-of-Flight (Q-TOF)

Separation Science Built for Biopharma

High Resolution Accurate Mass Peptide Quantitation on Thermo Scientific Q Exactive Mass Spectrometers. The world leader in serving science

HIC as a Complementary, Confirmatory Tool to SEC for the Analysis of mab Aggregates

LC/MS Analysis of the Monoclonal Antibody Rituximab Using the Q Exactive Benchtop Orbitrap Mass Spectrometer

FabRICATOR-HPLC is an HPLC column for fast on-column digestion of monoclonal antibodies.

ph gradient analysis of IgG1 therapeutic monoclonal antibodies using a 5 µm WCX column

Hongwei Xie, Martin Gilar, and John C. Gebler Waters Corporation, Milford, MA, U.S.A. INTRODUCTION EXPERIMENTAL

Rapid Peptide Catabolite ID using the SCIEX Routine Biotransform Solution

Transcription:

Characterization of Monoclonal Antibodies Using UHPLC-HRAM MS The power of the Q Exactive BioPharma for online intact, subunit analysis, middle down, and peptide mapping Jonathan L. Josephs and Aaron O. Bailey. Life Sciences Mass Spectrometry The world leader in serving science

Q Exactive BioPharma offers a complete characterization solution for BioPharma customers? 2

Two Types of Orbitrap Measurements for Intact Proteins Average mass resolution High Mass Range (HMR) mode Works for all proteins (mabs) Lowest resolving power Isotopic resolution Protein mode Small / medium-sized proteins (mab subunits) Highest resolving power 9 7 3 1 Average mass 9 7 3 1 Monoisotopic mass ReSpect deconcolution algorithm Xtract deconvolution algorithm 3

Intact Protein Analysis in BioPharma Finder Workflow software for intact protein mass determination Supports all Orbitrap mass spectrometers Includes 2 deconvolution algorithms: Xtract for isotopically resolved proteins ReSpect TM for isotopically unresolved proteins (e.g. IgG) Batch processing/automation 4

Sliding Window Deconvolution is the smart choice for chromatography [ [ [ [ [ t t t I t i t I t i t I t i t n s y e n v i e l a R e n s y e n v i e l a R e n s y e n v i e l a R e mab 8. 8.2 8.4 8.6 8.8 RT(min) 9. 9.2 9.4 9.6 9.8 8. 8.2 8.4 8.6 8.8 RT(min) 9. 9.2 9.4 9.6 9.8 8. 8.2 8.4 8.6 8.8 RT(min) 9. 9.2 9.4 9.6 9.8 mab + 2 drugs mab + 4 drugs Components integrated 5

Q Exactive BioPharma offers a complete characterization solution for BioPharma customers? 6

Subunit Analysis in Protein Mode on Q Exactive Plus LC-MS analysis of IdeS-digested, reduced Trastuzumab 9 7 3 1 Fc LC Fd 1 2 3 4 5 6 7 8 Time (min) Fc * 28+ * 92. 92.5 1 R=1, Sliding Window Xtract TM deconvolution LC.2 ppm 23428.519 23 LC * Fc A2GF 1.9 ppm 252.415 mass * 978 1 Fd.1 ppm 25367.515 Fc A2G1F 1.4 ppm 25382.551 24+ 26+ Fd * * 977 1 7

Subunit Analysis in Protein Mode on Q Exactive HF LC-MS analysis of reduced Trastuzumab Light Chain R = 1, Full MS * 24+ * 977.5 978. 978.5 LC HC 4 5 6 7 8 9 1 11 12 Time (min) Heavy Chain R = 15, Full MS R = 2, SIM MS 46+ 1.7 1.9 111.1 111.3 l a t i v e I n t e n s i t y R e 9 7 3 1 7 9 1 1 13 1 1 1 LC.8 ppm 23428.542 23425 23475 Mass Xtract TM deconvolution for monoisotopic masses 1 1 1 1 ReSpect TM deconvolution for average masses l a t i v e I n t e n s i t y R e HC A2GF 2.8ppm 1.26 Mass HC A2G1F 1.2ppm 763.44 8

Denaturing LC-MS in HMR mode Sensitive intact analysis of Trastuzumab antibody * 47+ 3 3 31 31.1 ng ( pg).5 ng 1. ng 1. ng. ng. ng Q Exactive Plus in HMR Mode with MAbPac RP 2.1 x mm, 2 µl/min.9 ppm 1456.34 1.2 ppm 148218.17 2.2 ppm 1483.16 pg injection 147 1 148 148 148 Mass ReSpect TM deconvolution 1. ppm 1456.6.4 ppm 148218.28 2.6 ppm 1483.9 1 148 Mass ng injection 9

Navigating Intact Protein complexity with High Mass Range (HMR) mode * 49+ MAbPac RP 5 1 Time (min) 3 7 R=17, 3 325 33 335 Denaturing MS is compatible with reverse phase HPLC separation. MAbPac SEC-1 5 1 Time (min) 25+ 3 7 * R=35, 59 593 59 59 Native MS is best for co-eluting high complexity samples like ADCs HMR mode intact analysis of Trastuzumab shows same answer in denaturing or native conditions 1

Two reasons why Native MS intact analysis is a powerful addition to a comprehensive ADC characterization stategy Cysteine-linked Lysine-linked (1) Preservation of structural non-covalent interactions (2) Increased separation in high mass range denatured native 3 7 11

Native LC-MS of Brentuximab vedotin, cysteine-linked ADC 2 4 6 8 1 Time (min) Size Exclusion LC-MS Intact Brentuximab vedotin 3 7 DAR2 DAR4 DAR6 Challenges: Optimizing desalting (Size Exclusion LC) Optimizing desolvation (MS) Can achieve balance of clean spectra and preservation of non-covalent forms Average Drug-to-Antibody Ratio (DAR) 4.7 Relative Intensity 147 12 DAR 2 x GF 1486.53 2 x GF 17.6 (-762.25 Da) 2 x GF 153355., 2 x GF 155987.81 DAR8 2 x GF 158632. 1 149 1 1 15 153 15 15 1 157 1 159 1 Mass Previously reported DAR 3.9 4.3 static nanospray Dabaene et al., Anal Chem. 14 Nov 4;86(21):1674-83

Intact analysis of Trastuzumab Emtansine lysine-linked ADC Denaturing vs. Native conditions Denatured R=17, Native R=35, 3 3 5 6 7 7 53+ 52+ 51+ + 49+ 48+ 29 29 3 3 3 26+ 25+ 59 6 61 Native MS allows greater separation of co-eluting species charge states 13

Native LC-MS in High Mass Range (HMR) mode Intact ADC Analysis of Trastuzumab Emtansine 25+ 26+ 24+ R=7, 6 6 6 zoom Size Exclusion Chromatography ADC Buffer salts can be diverted to waste 2 4 6 8 1 Time (min) 59 6 61 6 9 7 3 1 1 149 1 1 15 153 15 15 1 Mass GF/G1F DAR Mass Accuracy (ppm) Relative Abundance D 6.49 9.19 D1 21.69 34.26 D2.5 59.3 D3 6.81. D4 5.17 91.16 D5 6.69 67.42 D6 15..46 D7 6.28 24.28 D8 3.78 3.84 Trastuzumab Emtansine Lysine-linked ADC Average Drug-to-Antibody Ratio (DAR) 3.71 14

Q Exactive BioPharma offers a complete characterization solution for BioPharma customers 15

Workflow for a middle down experiment 1gG (1kDa) IdeS Reduction Sample Prep LC (25kDa) Fd (25kDa) Fc/2 (25kDa) LC-MS Fc/2 4.43 4.77 5.26 LC 6.25 4 5 6 7 8 LC 838.28 938.79 977.78 Time (min) 166.53 1117.32 7.29 Fd 1234.88 1379.92 8.19 8.49 782.46 1466.17 1563.85 757.38 1678.26 1 1 1 1 Type of fragmentation available: Q Exactive Plus/HF: HCD Orbitrap Tribrid Fusion/Lumos: HCD, CID, ETD and EThcD (UVPD - not commercial) 16

Workflow for a middle down experiment 1gG (1kDa) IdeS Reduction Sample Prep LC (25kDa) Fd (25kDa) Fc/2 (25kDa) LC-MS Fc/2 4.43 4.77 5.26 LC 6.25 4 5 6 7 8 LC 838.28 938.79 977.78 Time (min) 166.53 1117.32 7.29 Fd 1234.88 1379.92 8.19 8.49 782.46 1466.17 1563.85 757.38 1678.26 1 1 1 1 MS/MS Due to the complexity of the spectra in top-down analysis, high resolution is required 17

Sequence coverage with HCD fragmentation on an Q Exactive Plus (Trastuzumab) 9 7 3 1 HCD MS/MS R=1, z=26 z=25 z=7 z=6 z=6 z=8 z=6 z=6 z=7 z=4 z=4 z=6 7 9 1 1 13 1 Xtract TM deconvolution Light Chain 49% residue cleavages Fd 38% residue cleavages 1 1 2 mass Fc 39% residue cleavages 18

Q Exactive BioPharma offers a complete characterization solution for BioPharma customers 19

Trastuzumab peptide mapping Trastuzumab Accurate peptide IDs are based on high fidelity MS/MS spectra visualized in a color coded display by BioPharma Finder software.

Top 15 most abundant glycoforms measured by peptide mapping Protein Residue # Modification Category Sequence Confidence Automatic detection by BioPharma Finder Average % Abundance % Abundance Run 1 % Abundance Run 2 % Abundance Run 3 Heavy Chain 3 N3+A2GF Glycoform EEQYNSTYR 35.22 34.7 34.7 36.24 Heavy Chain 3 N3+A2G1F Glycoform EEQYNSTYR 31.77 31.22 31.53 32.55 Heavy Chain 3 N3+A1GF Glycoform EEQYNSTYR 9.31 1.83 9.53 7.59 Heavy Chain 3 N3+A2G2F Glycoform EEQYNSTYR 5.54 5. 5.56 5.58 Heavy Chain 3 N3+A2G Glycoform EEQYNSTYR 4.79 4.66 4.85 4.85 Heavy Chain 3 N3+M5 Glycoform EEQYNSTYR 4.72 4.78 4.83 4.53 Heavy Chain 3 N3+A1G1F Glycoform EEQYNSTYR 3.53 4.6 3.65 2.87 Heavy Chain 3 N3+A1G Glycoform EEQYNSTYR 2.35 2.54 2.45 2.5 Heavy Chain 3 N3+A2G1 Glycoform EEQYNSTYR 2.32 2.25 2.39 2.31 Heavy Chain 3 N3+Unglycosylated Glycoform EEQYNSTYR 1.97 1.94 2. 1.97 Heavy Chain 3 N3+A2S1G1F Glycoform EEQYNSTYR.82.76.82.88 Heavy Chain 3 N3+A1G1 Glycoform EEQYNSTYR.59.61.64.54 Heavy Chain 3 N3+M6 Glycoform EEQYNSTYR.59.56.. Heavy Chain 3 N3+A2S1GF Glycoform EEQYNSTYR..39.41.41 Heavy Chain 3 N3+M4 Glycoform EEQYNSTYR.39.38.43.35 21

Top 15 most abundant glycoforms measured by peptide mapping Automatic detection by BioPharma Finder R e l a t i v e A b u n d a n c e 9 7 3 1 9 7 3 1 1194.441 938.4489 1121.1 1275.76 1356.968 Predicted MS/MS 625.9684 366.1395 836.79 1645.6963 1937.7946 99.8472 2375.2 b 2 23.1499 (GnM) 366.1392 b 4 483.3 b 5 612.3422 b 6 741.3969 Y1-F² + 937.9435 M1² + 1121.128 M2F² + 1275.6 M3² + 1283.641 Acquired MS/MS A1G² + 1384.28 1857.8456 Y1 21.9683 1 1 1 1 2 22

Thank you! Eugen Damoc Kai Scheffler Stephane Houel Thomas Moehring Alexander Makarov Jessica Wang Jennifer Sutton Michael Blank Terry Zhang Kate Comstock Keeley Murphy David Brant Tina Settineri Ken Miller Paul Gazis Shanhua Lin Shane Bechler Seema Sharma David Horn Fred Zinnel Mark Sanders Keith Waddell Brenda Kesler 23