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New Quadrupole MS detection capabilities for Ultra Performance LC Gary Harland Dale Jansen 720001762EN

New Quadrupole MS detection capabilities for Ultra Performance LC · 2007. 11. 21. · Caffeine Doxylamine Ephedrine ACQUITY SQD Fast Scan: Drug Mix 10,000 Da/s 1.400 2227573 1.401

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New Quadrupole MS detection capabilities for

Ultra Performance LC

Gary HarlandDale Jansen

720001762EN

©2004 Waters Corporation

Overview

• Refresher : What is UPLC?

• New Products overview : – SQ Detector– TQ Detector

©2004 Waters Corporation

HPLC TodayThe state of the science

• The quality of the separation in HPLC today is both driven and limited by column chemistry. Optimized chemistry can bring speed, sensitivity and resolution benefits to the chromatographic process

• Particle size is a primary contributor to column performance

• The challenge in the laboratory is that today’s instrumentation cannot take advantage of tomorrows’reality of smaller particles

©2004 Waters Corporation

10 min

1980’s to present day3.5 - 5µm spherical micro-porous1500-4000 psi (110-280 bar)80,000 - 115,000 plates/meter

Early 1970’s10µm Irregular micro-porous1000-2500 psi (70-180 bar)40,000 plates/meter

10 min

Particle Size EvolutionLate 1960’s40µm pellicular non-porous coated100-500 psi (7-40 bar)10,000 plates/meter

10 min

©2004 Waters Corporation

The promise of the van Deemter plot

Smaller ParticlesThe enabler of productivity

©2004 Waters Corporation

Ultra Performance LCTM

SpeedA

U

0.000

0.010

0.020

0.030

0.040

0.050

Minutes0.00 2.00 4.00 6.00 8.00 10.00 12.00 14.00 16.00 18.00 20.00 22.00 24.00 26.00 28.00 30.00

AU

0.000

0.010

0.020

0.030

0.040

0.050

Minutes0.00 0.50 1.00 1.50 2.00 2.50 3.00 3.50 4.00

UPLCTM

1.7 µm particleComplete Separation 3.5 min

Rs = 2.4

UPLCTM increases speed by 9X

Rs = 2.2

Rs = 1.8

Rs = 1.7

HPLC CONDITIONSColumn: 2.1 x 100 mm 5.0 µm, Bridged Hybrid C18Flow: 0.2 mL/min Temperature: 32 oCIsocratic: 3% ACN with 0.1% Formic AcidDetector: UV at 280 nm, 20 points/sec, Tc = 0.12 uL injectionBackpressure: 1130 psiSample: Caffeine and metabolites

UPLC™ CONDITIONSColumn: 2.1 X 30 mm 1.7 µm, ACQUITY UPLC™C18Flow: 0.6 mL/min Temperature: 32 oCIsocratic: 3% ACN with 0.1% Formic AcidDetector: UV at 280 nm, 20 points/sec, Tc = 0.12 uL injectionBackpressure: 6460 psiSample: Caffeine and metabolites

©2004 Waters Corporation

Ultra Performance LCTM

Sensitivity

Increased sensitivity using 1.7 µm particles

UPLCTM provides increased sensitivity

See more of your sample

AU

0.000

0.004

0.008

0.012

0.016

0.020

Minutes1.70 1.80 1.90 2.00 2.10 2.20 2.30 2.40 2.50 2.60

1.7 µm

AU

0.000

0.010

0.020

0.030

0.040

0.050

Minutes0.00 1.00 2.00 3.00 4.00 5.00 6.00 7.00 8.00

AU

0.000

0.010

0.020

0.030

0.040

0.050

5.0 µm

0.024

Column: 2.1 X 50 mm 1.7 µm, ACQUITY UPLCTM C18 2.1 x 50 mm 5.0 µm, BH C18Flow: 0.5 mL/min Temperature: 32 oCIsocratic: 3% ACN with 0.1% Formic AcidDetector: UV at 280 nm, 20 points/sec, Tc = 0.12 uL injectionBackpressure: 2380 psi (5.0 µm), 7580 PSI (1.7 µm)Sample: Caffeine and metabolites

©2004 Waters Corporation

Ultra Performance LCTM

Resolution

1.7 µm

5.0 µm

30.0

AU

-0.010

0.000

0.010

0.020

0.030

0.040

0.050

Minutes0.0 2.0 4.0 6.0 8.0 10.0 12.0 14.0 16.0 18.0 20.0 22.0 24.0 26.0 28.0

More information from complex samples

UPLCTM offers 1.7X increase in resolutionColumn: 2.1 x 50 mm 5.0 µm, Bridged Hybrid C18

2.1 X 50 mm 1.7 µm, ACQUITY UPLCTM C18Flow: 0.3 mL/min Temperature: 38 oCGradient (30 min): 5-50% ACN with 0.018% TFADetector: UV at 214 nm, 20 points/sec, Tc = 0.110 uL injectionBackpressure: 1400 psi (5.0 µm), 4500 psi (1.7 µm)Sample: MassPREPTM Peptide Mixture

©2004 Waters Corporation

Making UPLC™ a Reality TodayEssential technology achievements

• Small, pressure-tolerant particles

• High pressure fluidic modules (up to15,000 psi)

• Minimized system volumes and optimized flow paths

• Reduced cycle times

• Negligible carryover sample management

• High speed detectors (optical and mass)

• Software designed for system integration– Novel communication protocols– Advanced diagnostics

©2004 Waters Corporation

Systems TechnologyUltra performance by design

Detectors:Optical and/or Mass SpecTunable UV or Photodiode ArrayOptimized flow cell for UPLCTM

High speed detectionLow dispersion designUPLC pressure capabilities

Column Manager:Innovative pivot design for MS InterfaceColumn temperature controleCord technologySample Manager:

Low dispersion XYZZ’ FormatFast cycle timesLow carryoverPlates and/or vialsOptional Sample OrganizerUPLC pressure capabilities

Solvent Manager:High pressure blendingBinary gradientsFour solvent choicesOn-line degassingLow dispersion designUPLC pressure capabilities

©2004 Waters Corporation

Why UPLC-MS?

• UPLC provides the following benefits for MS:

– Improved resolution for complex mixture analysis

– Improved resolution can reduce MS ion suppression by separating species that co-elute in conventional HPLC – improved MRM detection limits

– Shorter analytical run times without compromising chromatographic resolution – increasing sample throughput

– Narrower chromatographic peaks effectively increase concentration of analytes entering the MS source – increasing signal intensity and improving MRM detection limits.

©2004 Waters Corporation

UPLC-MS/MS vs HPLC-MS/MS

Peak height increase 3.7 times.

Signal to noise ratio 4.7 times increase

Time0.20 0.40 0.60 0.80 1.00 1.20 1.40 1.60 1.80 2.00 2.20 2.40 2.60 2.80 3.00

%

0

0.20 0.40 0.60 0.80 1.00 1.20 1.40 1.60 1.80 2.00 2.20 2.40 2.60 2.80 3.00

%

0

QM_HPLC_ESI+_4Compound_041205_010 MRM of 4 Channels ES+ 309 > 280.84

1.06e5Height

0.9928719

QM_UPLC_ESI+_2Compound_042605_010 MRM of 2 Channels ES+ 309 > 280.84

1.06e5Height

0.54105629

UPLC-MS/MS

HPLC-MS/MS

ESI+, Alprazolam

©2004 Waters Corporation

UPLC Compatibility:Narrow peaks = less data points?

100 ms Dwell Time, 10 ms Delay

0

%

0.63

100 105 110 115 120 125 130 Scan0

%

0.63 Peak Width = 1.8 s

Points Across Peak = 7

0.25 0.75 1.25 1.75Time

Convert the x axis to scan number

©2004 Waters Corporation

UPLC Compatibility:Narrow peaks = less data points?

Peak Width 1.8 s

100 ms Dwell Time, 10 ms Delay

0

%

0.63

100 105 110 115 120 125 130 Scan0

%

0.63 Peak Width = 1.8 s

Points Across Peak = 7

Time

Convert the x axis to scan number

0.25 0.75 1.25 1.75

Points Across Peak = 60

0.25 0.75 1.25 1.75Time0

%

0.63

1100 1200 1300 1400 Scan0

%

0.63

5 ms Dwell Time, 5 ms Delay

Convert the x axis to scan number

©2004 Waters Corporation

New MS Detection for ACQUITY UPLC

ACQUITY SQD featuring the SQ Detector

Single Quadrupole MSIntroduced Pittcon 2006

ACQUITY TQD featuring the TQ Detector

Tandem Quadrupole MSIntroduced ASMS 2006

©2004 Waters Corporation

New MS Detection for UPLC

• SQ and TQ Detectors designed to be:

– UPLC Compatible– Smaller in size– Multi-mode – Easier to operate

©2004 Waters Corporation

Time0.10 0.20 0.30 0.40 0.50 0.60 0.70 0.80 0.90 1.00 1.10 1.20 1.30 1.40 1.50 1.60 1.70 1.80 1.90 2.00

%

0

100acq11mix6 1: Scan ES+

BPI1.31e8

1.05

0.74

0.58

0.24

0.680.64

1.00

1.22

1.26

1.41

Peak at 1.41 min 1.5 sec at baseline10000da/sec 23 scans across peak

Terfe

nadi

ne

Oxy

buty

nin

Trim

ipra

min

e

Dip

henh

ydra

min

e

Pro

pran

olol

Lido

cain

eD

oxyl

amin

e

Caf

fein

e

Eph

edrin

e

ACQUITY SQD Fast Scan:Drug Mix 10,000 Da/s

1.400 22275731.401 26256891.403 32623071.404 47053201.405 66985011.406 84895641.407 94074641.408 105724101.410 127896701.411 150318611.412 165974851.413 169260881.414 161593141.415 129845721.417 101603621.418 86540481.419 85601261.420 69053511.421 55428281.422 45199571.424 41617671.425 32353271.426 2770925

150-650m/z50ms scan time

©2004 Waters Corporation

Waters TQ DetectorSmallest tandem quadrupole on the bench

13" (330mm) of linear bench space

©2004 Waters Corporation

TQ Schematic

©2004 Waters Corporation

Tandem Quadrupole MS/MS Advantages

• High Selectivity – reduce or eliminate matrix interferences

• High Sensitivity– trace levels - low reporting limits

• Quantitative Accuracy– reproducibility, stability and dynamic range– accurate quantitation of targets at low levels in matrix

• Robustness– complex sample matrices, reduced sample clean-up

©2004 Waters Corporation

SIR vs MRM for complex matrices

MRM

SIR

©2004 Waters Corporation

Waters TQ DetectorKey Features

• Tandem quadrupole mass spectrometer

• Small footprint :– Only 13” wide– 25% smaller box than Quattro micro

• Z-Spray ion sources– ESI and ESCi are standard– IonSabre APCI, APPI options– Integrated infusion fluidics– Tool free routine maintenance

• 2 to 2000 Da mass range

• T-Wave collision cell for Hi-Speed UPLC-MS/MS

• Scan rate up to 10,000 Da per second

• Polarity switching in 20 ms

©2004 Waters Corporation

UPLC Compatibility:Do you need a high MRM acquisition rate?

• The cycle time per MRM transition is composed of two parameters:– a dwell period where ions are monitored– an inter-channel delay period between successive MRM

transitions to allow ions to be cleared from the collision cell.

• Following the inter-channel delay the collision cell must be rapidly filled with ions of the next transition.

• If this does not occur rapidly enough (i.e., when the dwell time is very short) the signal will fall in intensity.

©2004 Waters Corporation

T-Wave™ Technology

• Fast MRM acquisitions– 100 data points/second– Maintains sensitivity– Minimises cross-talk

• Improved scanning data– Precursor ion mode– Neutral loss mode

The travelling wave device described here is similar to that described by Kirchner in US Patent 5,206,506 (1993).

time

ions

Travelling Wave Pulse

©2004 Waters Corporation

Do you need a high MRM acquisition rate?

Travelling Wave Ion Transport The effect of MRM acquisition rate on signal intensity

100 data points per second

©2004 Waters Corporation

T-Wave for Fast MS/MS scanningImproved Precursor and CNL scans

Neutral loss scans can be acquired at very high scan speeds with almost no loss in signal intensity

306 307 308 309 310 311 312 313 314 315 316 317m/z0

100

%

0

100

%

0

100

%

0

100

%

nl_005 48 (0.484) Neutral Loss 155ES+ 8.66e5

311

312

nl_004 12 (0.222) Neutral Loss 155ES+ 8.66e5311

312

nl_003 6 (0.511) Neutral Loss 155ES+ 8.66e5311

312

nl_002 8 (0.148) Neutral Loss 155ES+ 8.66e5

311

312

1000 amu/sec

500 amu/sec

100 amu/sec

10 amu/sec

©2004 Waters Corporation

UPLC CompatibilitySummary

• New digital electronics delivers fast scan capability

• T-Wave delivers fast MS/MS capability

• New design delivers mode switching speed– ESCi– Pos/Neg

©2004 Waters Corporation

Waters IntelliStartTM System

• IntelliStart is designed to automatically monitor Instrument ‘health’ to ensure it is ready for use.

• Where possible, the system may also take corrective action to rectify any failed system checks

• IntelliStart comprises:– Automated system checking software– Diagnostic electronics– Integrated fluidics device– 2 built-in vial locations for set-up/user solutions

©2004 Waters Corporation

IntelliStart:SQ and TQ System checks

• IntelliStart software continuously monitors selected instrument parameters

– Operate status– Gases– Voltages– Temperatures– Vacuum– Inlet communications– Network availability/disk space– Tune check– Calibration check– Service date elapsed– Fuses– Interlocks

©2004 Waters Corporation

IntelliStart:MassLynx Toolbar

• System status displays Readiness state to the user

• System check failure results in red light

• System help describes the failed system check

• Mouse hover-over reveals reason and corrective action

• Click IntelliStart to launch System Console

©2004 Waters Corporation

ACQUITY System Console

Designed to simplify user interaction with the system, enabling many actions to be automated

©2004 Waters Corporation

System Console:IntelliStart

• Displays detailed information on system readiness with possible corrective action. Progress bar shows time required to rectify.

• Enables automated tuning, calibration and system performance checks to be performed

©2004 Waters Corporation

IntelliStart Fluidics

• Fluidics can be operated manually from the Console or automated as part of an IntelliStart sequence

©2004 Waters Corporation

System Performance Check

• IntelliStart also features a system performance check

• 6 replicate injections of a known compound are made from the LC system with known chromatographic retention time

• Data quality measurements are made by OpenLynx processing to produce a pass/fail report

• Users may define tolerances for pass criteria

• Results are logged in the System Console and reports are produced in OpenLynx (electronic) and printed form.

• Raw data and experimental details are also stored.

©2004 Waters Corporation

System Check set-up

System check:

• Retention time• Peak area• Peak height• Peak width• Signal-to-noise

©2004 Waters Corporation

Printed report excerpt:System check results

©2004 Waters Corporation

Connections® INSIGHT™

• Connections® INSIGHT™ uses proven Intelligent Device Management (IDM ) technology that has been successfully implemented in highly regulated, maximum security environments, ranging from high tech to healthcare industries

• Connections® INSIGHT™ leverages the Internet to proactively and securely connect the ACQUITY UPLC™ Systems to Waters service experts

• Connections® INSIGHT™ builds an instrument usage profile over time so we can deliver customized service solutions

• Connections® INSIGHT™ creates the “virtual presence” of a service Engineer in the lab that monitors customers’ ACQUITY UPLC™

systems to ensure maximum uptime and system performance

• Now extended to include SQD and TQD systems

©2004 Waters Corporation

Software

• For the first time, a Tandem Quadrupole MS will be available on both MassLynx and Empower platforms.

• Scalable, networked CDS Solution• Embedded relational database• Support for regulated laboratory environments• Full system suitability reporting• Method Validation Manager

• Dedicated MS Software platform• Customized Application-managers• Automated System check• QuanOptimize• Open Access quantitation

©2004 Waters Corporation

Summary

• UPLC has demanded improved acquisition speed from mass spectrometry

• New single quadrupole and tandem quadrupole MS systems designed for UPLC compatibility

– Faster…multi-mode complex acquisitions in single UPLC run– Easier…IntelliStart automated system monitoring & set-up– Smaller…>25% smaller than previous generation

©2004 Waters Corporation

Acknowledgements

Many thanks to all on the ACQUITY SQD and TQD project team

Thank you

Any questions?

©2004 Waters Corporation

Quattro micro vs TQ Detector

Quattro micro TQ Detector DifferenceMass rangeScan Speed

Polarity switching speed

Minimum Dwell time

Minimum dwell time without signal loss

100ms 5ms 20x

Minimum inter-channel delay

ESCi switching speed

IonSabre & APPI optionsAutotune

4-2000amu 4-2000amu -

5,000amu/s 10,000amu/s 2x

100ms 20ms 5x

10ms 5ms 2x

10ms 5ms 2x

100ms 20ms 5x

Autotune wizard IntelliStart System checks

Yes – requires external control unit

Yes – plug&play Integrated