The Comparison of High Resolution MS with Triple Quadrupole MS for the Analysis of Oligonucleotides

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The Comparison of High Resolution MS with Triple Quadrupole MS for the Analysis of Oligonucleotides Mohammed Abrar Unilabs York Bioanalytical Solutions

Outline Introduction Why LC-MS/MS? Limitations of LC-MS/MS Triple vs HRMS Case study Summary Conclusions

Introduction Each nucleotide in the nucleic acid polymer comprises of 3 parts 5 carbon sugar Nitrogenous base Phosphate group Bases Cytosine Guanine Adenine Uracil or Thymine

Introduction

Why LC-MS/MS? When Elisa gives the highest sensitivity for SiRNA Reported sensitivity down to 25 pg/ml But Problem is it cannot distinguish between different chain lengths ie parent from shorter metabolites Leads to over estimation of parent

Why LC-MS/MS? Very high degree of selectivity Identification and quantification of parent and metabolites But Best reported sensitivity of a validated method 4 ng/ml [Deng et al] 2010

Limitations of LC-MS/MS Chromatography Difficult due to the highly polar nature of the multiple Phosphate groups Fine balance between ionisation and chromatographic retention Ion pair chromatography uses mixture of TEA and HFIP Ionisation Negative electrospray produces multiply charged states Produces multiple adducts H +, Na +, K + Poor fragmentation of Oligos down to small common fragments

Triple vs HRMS Triple We have plenty of these in our bioanalytical labs Very sensitive MS instruments Xevo TQ-S, API6500 etc Give maximum sensitivity in MRM mode Easy to use HRMS We have very few high res instruments in our labs Usually found in metabolism labs and used for qualitative analysis High end machines (QTOF and Q-Exactive) now give similar sensitivity as API4000 in full scan Q-Exactive is very easy to use (software & hardware) How do the 2 instrument types compare for the analysis of Oligos?

Case study Oligonucleotide Mwt 5 kda Assay range required 0.4 to 100ng/mL EDTA human plasma samples spiked with Oligo Samples extracted using waters mixed mode anion exchange SPE Chromatography consisted of C18 column using water/meoh with TEA and HFIP modifiers Same samples run on both Waters Xevo TQ-S and Thermo Q- Exactive Samples were extracted and analysed on both instruments using same chromatographic conditions Analytical variables minimised to compare performance of the two instruments

Calibration curve (Triple)

Calibration curve summary (Triple)

Cal 0.4 ng/ml (Triple)

Cal 0.8 ng/ml (Triple)

Matrix Blank (Triple)

Q-Exactive Q Exactive Method Negative Ion Mode 140,000 resolution SIM m/z 1762 +/- 2 Da SIM m/z 1420 +/- 2 Da

Cal 100 (Q-Exactive) SIM_comparison_39 #415-429 RT: 4.81-4.98 AV: 8 NL: 4.75E4 T: FTMS - p ESI SIM ms [1760.00-1764.00] 100 1761.8265 95 90 1761.4930 85 80 75 70 65 Relative Abundance 60 55 50 45 40 1761.1596 1762.1596 35 30 25 1760.8258 20 15 10 1762.4930 5 0 1760.0 1760.5 1761.0 1761.5 1762.0 1762.5 1763.0 1763.5 1764.0 m/z

0.4 ng/ml (Q-Exactive) Extracted Ion Chromatogram and Calibration Line

Matrix Blank (Q-Exactive)

0.4 ng/ml (Q-Exactive)

0.8 ng/ml (Q-Exactive)

Triple vs HRMS Sensitivity comparable on both instruments Selectivity much better on Q-Exactive HRMS SIM performed better than MRM on a Triple Slight issue with HRMS method not enough data points due to high scan time at 140,000 Res Both instruments very easy to setup

Summary Oligos are analytically very challenging Very polar and hence difficult to chromatograph without ion pairing Chromatographic separation of Oligos difficult and based on mass ie no of mers Multiply charged ions produced in negative ESI MS/MS fragmentation poor Non specific fragments produced under CID No real advantage in running MRM in terms of sensitivity/selectivity HRMS SIM gives both high sensitivity and selectivity by measuring individual isotope mass peaks

Conclusions For targeted analysis Compounds showing good CID fragmentation MRM triple Compounds showing poor CID fragmentation SIM HRMS Compounds showing non specific fragmentation MRM triple or HRMS SIM Will HRMS replace triples for bioanalysis? NonSense Do HRMS instruments give advantages for biotherapeutics? Do HRMS instruments complement triples? In the future 20% instrumentation HRMS (depending on work mix) Sense Sense Sense Screening + quantification in the same run ie chemical series by HRMS Sense HRMS an effective tool for bioanalysis Sense

The drug development paradigm is changing! Are we ready to adapt?

Acknowledgements Thermo UK Jason Lyle Helen Podmore YBS Colleagues for their support on the Oligo project