Neueste LC Entwicklungen

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Neueste LC Entwicklungen 2D-LC, High Dynamic Range Detektion, quaternäre Pumpe mit 1200 bar Sebastian Krahe Produktspezialist LC Agilent Technologies, Deutschland/Österreich 2. Oktober 2012 Hamburg 1

Agilent 1290 Infinity 2D-LC Solution A new flexible and userfriendly 2D-LC solution for the most complex samples 2

What is 2D-LC? 2D-LC: Injecting the effluent or a part of the effluent of one column to a second column, ideally with orthogonal separation behavior. Purpose: increase total separation power. Peak capacities multiply for orthogonal separation mechanisms! Two different modes: Comprehensive 2D-LC ( LCxLC ) Heart-cutting 2D-LC ( LC-LC ) 3

2D-LC - Difference between comprehensive 2D-LC and heart-cutting 2D-LC Comprehensive 2D-LC (LCxLC): LC 1 The complete effluent of the first column will be injected to the second column and will be analyzed with very fast gradients, a peak of the first dimension should be sampled at least 3 to 4 times. The run time of the 2 nd dimension method matches the collection time of the 1 st dimension efluent. Finally, the peaks will be re-constructed. LC 2 LC 2 LC 1 1st peak from 1st dimension 2nd peak from 1st dimension 3rd peak from 1st dimension 4

2D-LC - Difference between comprehensive 2D-LC and heart-cutting 2D-LC Heart-cutting 2D-LC (LC-LC): LC 1 LC 2 Only parts of the effluent of the first column the peaks eluted from the 1 st dimension column - will be injected to the second column. Typically a peak from the first dimension will be sampled as a whole and a gradient with a longer run time than the collection time will be used. Also longer columns with higher seperation efficiency are being used in as 2 nd dimension column. Care must be taken if peaks are eluting from the first dimension column when a gradient on the second dimension is still running this peak will be lost. 5

Hardware Module-flexibility 2. Dimension 1. Dimension One or two 1290 Infinity TCC 1290 Infinity Binary Pump 1290 Infinity Binary Pump 1290 Infinity Autosampler or 1260 HiP Autosampler Optional 1260/1290 Infinity Detector Optional 1260/1290 Infinity Detector 1260 Infinity Capillary Pump 1260 Infinity Binary or Quaternary Pump 1260 Infinity Autosampler For 1st dimension chromatogram and peaktriggering 1260/1290 Infinity detector To monitor waste-line Almost any Agilent pump or autosampler in the 1 st dimension! Almost any detectors are supported! A 1290 Infinity Binary Pump for the 2 nd dimension is required. 6

Hardware Valves, uniqueness and flexibility 2. Dimension 1. Dimension 2pos/4port-duo Loop1 waste Loop2 New Agilent-only special 2D-LC-QucikChange valve. Single valve with fully symmetric flow-paths and symmetric fill/flush-out behavior. Only valve that allows countercurrent flush-out of both loops. 7

Advantages of the new Agilent 2D-LC QuickChange valve head 1. 2. 2 D-pump 2 D-pump Loop1 1 D-column Valve waste switching Loop2 1 D-column 1 D-column Fill direction Analyze direction All flow paths are equal (no additional bridging loops) Symmetric contercurrent fill/analyze direction of loops (reducing band-spread) All in one valve (no synchronization, costs) 8

2D-LC Acquisition software - an add-on to Agilent s OpenLAB CDS ChemStation edition Dashboard: All modules in one dashboard can be relabled individually, e.g. BinPump-1st-Dim 9

Comprehensive 2D-LC gradient modes - special 2 D-gradient modes to improve resolution standard repeating with start- and end-time %B 1 D %B 2 D Start 2 D sampling Time End 2 D sampling constantly shifted %B 2 D %B 1 D %B 2 D Time constantly shifted %B 2 D and shifted Δ%B 2 D %B 1 D %B 2 D Time Any combination %B 1 D %B 2 D Time 10

Time-segmenting in comprehensive 2D-LC - Reducing cost! 1 D Method run time 1 D Gradient/ %B ( 1 D) 1 D Chromatogram 2 D Time-segments set in software 2 D Pump flow rate Solvent saving!!! Valve toggling Increase life time! F ( 2 D) 2 D Pump flow rate Idle flow rate idle Time-triggered idle Peak-triggered idle 1 D Method post-run time 2 D Gradients %B ( 2 D) 11

Example: graphical editing of a gradient shift in less than a minute! - replace editing of large timetables by a few mouse operations 1 Use context menu to enter the editing mode 2 Timetable entries are marked with circles 3 Draw a straight line by dragging the mouse to a new %B value at a specified runtime of the 1 st dimension 4 When releasing the mouse, a new TT entry is made and the gradient rollout is automatically updated 5 Repeat step 3 + 4 with other TT entries 6 Insert / Delete shift points (mouse cursor and context menu changes near to a shift line) 12

Application examples -Advantage of shifted gradient features RPLC x RPLC Easy method setup but only little orthogonality Current state-of-the-art 2D-LC narrow spread of peaks 13

Application examples -Advantage of shifted gradient features Resolution optimized! Use of shifted gradient feature Imagine to program this gradient manually! With the Agilent 2D- LC Acquisition software a matter of a minute! 14

Applications examples - Polyphenols from food matrix Compound RT 1st dim RT 2nd dim Peak Volume (min) (sec) Esculin mean 9.75 18.58 177,383 s.d. nd 0.11 4,713 RSD (%) nd 0.57 2.7 Rutin mean 13.65 33.68 72,375 s.d. nd 0.07 853 RSD (%) nd 0.22 1.2 Coumaric acid mean 13.00 25.57 660,541 s.d. nd 0.13 13,037 RSD (%) nd 0.52 2.1 Reservatrol mean 18.85 26.65 1,122,219 s.d. nd 0.10 16,089 RSD (%) nd 0.37 1.4 Salicylic acid mean 19.50 18.53 211,092 s.d. nd 0.10 6,895 RSD (%) nd 0.51 3.3 Luteolin mean 19.50 32.70 695,601 s.d. nd 0.11 17,592 RSD (%) nd 0.33 2.5 7-Hydroxy- Flavone mean 22.75 34.26 1,388,226 s.d. nd 0.10 17,195 RSD (%) nd 0.30 1.2 Pinoslyvin mean 24.70 18,85 1,588,654 s.d. nd 0.23 57,580 RSD (%) nd 1.24 3.6 Chrysin mean 27.30 27.42 808,916 s.d. nd 0.11 14,768 RSD (%) nd 0.39 1.8 Flavone mean 28.60 26.35 1,008,012 s.d. nd 0.13 20,911 RSD (%) nd 0.48 2.1 Peak volume: all compounds <3.6% RSD 1 2 3 5 6 4 7 8 11 9 12 10 23 17 13 1418 19 15 21 22 20 16 24 25 26 15

Summary The Agilent 1290 Infinity 2D-LC solution brings the power of twodimensional LC-separation to you at a never before experienced easeof-use! Highest separation power by 2D-LC combined with outstanding performance of the 1290 Infinity LC the ideal tool for complex samples form biological origin, polymers, food-extracs, and many more. Innovative new hardware and software features for ease-of-use, reduced operation costs and highest performance. Upgradability or re-use of existing Agilent LC equipment. 16

30x wider linear UV range - Quantification of widely different concentration levels in one single run Agilent 1200 Infinity High Dynamic Range (HDR-DAD) Solution 1260/1290 Infinity HDR-DAD 17

Sensitivity Gain History of DAD Sensitivity Gain The last 30 years 14.0 >10 12.0 10.0 1260 / 1290 Infinity Diode Array Detector 8.0 6.0 4.0 2.0 1.4 1.8 2.0 1.3 0.0 1040 > 1090 1090 > 1050 1050 > 1100 1100 > 1200 1200 >1290 (1986) (1988) (1995) (2006) (2009) Detector Model (Intro Year) 18

Linearity Gain History of DAD Linearity Gain The last 30 years 45.0 40.0 > 30 35.0 1200 Infinity HDR-DAD 30.0 >30X Linearity With HDR 25.0 20.0 15.0 10.0 5.0 0.0 1.4 1.7 2.0 1.4 1040 to 1090 1090 to 1050 1050 to 1100 1110 to 1200 1200 to 1290/60 1200 to HDR 2.9 (1986) (1988) (1995) (2006) (2010) (2011) Detector Model (Intro Year) 19

Optofluidic Waveguides: Max-Light Flow Cells Total-internal reflection in a non-coated fused silica fiber Mirror 1260 / 1290 Infinity DAD Grating Programmable or fixed slit Deuterium Lamp Max-Light Cartridge Cell 10 mm or 60 mm path length 1024 element diode-array 20

Linearity, linear range and dynamic range 1200 Series Diode Array Detector, 10 mm flow cell Detector Signal [AU] Linear _ range 3 Upper _ Limit Detector _ Noise 5 10 10 mm HDR- DAD Upper limit 2.0 Detector noise 7*10-6 Slope = Response Factor (Sensitivity) HDR- DAD Linear range Dynamic range LOD (3x S/N) Conc (upper limit) linear range Conc (upper limit) dynamic range Conc [µg/ml] 21

30x Wider Linear Range with HDR-DAD All sample information in one run Detector Signal [AU/cm] For samples with widely different concentration levels no time consuming - re-analysis - re-calibration - sample preparation Conc [µg/ml] 22

30x Wider Linear Range with HDR-DAD 3.7 mm and 60 mm and Max-Light flow cell Detector Signal [AU/cm] 3.7 mm path-length 60 mm path-length Computing the signals from 60 mm path-length for the low concentration 3.7 mm path-length for the high concentration Conc [µg/ml] 23

1200 Infinity High Dynamic Range (HDR-DAD) Increasing linear UV Range by 30x: Benefits DAD 1: 60mm For sample mixtures with widely different concentration levels: DAD 2: Clustered DAD 3.7mm All sample information in one run, e.g. for fixed dose combinations shorter turnaround time higher instrument utilization reduced solvent and waste costs. Up to 30x lower LOD, 15x lower LOQ (compare to 1100/1200 Series) for more reliable automated integration higher area precision of low levels impurities prepared for stronger regulations genotoxins 24

Experiment As sample a Fixed Dose Combination drug was used: Paracetamol (200mg) and Chlorphenamine (2.5mg )(1:80), other compounds are Vitamin C (150mg) and Caffeine (25mg) + further small impurities Analysis on Agilent 1290 Infinity LC with conventional DAD using 2 injections with 1µL and 5µL injection volume to determine high and low dosed drugs Inject of 5µL injection volume on Agilent 1290 Infinity HDR DAD system to determine low-dose and high-dose drug within linear range (6 AU) with one single injection 25

2 Injections needed if a conventional DAD is used DAD1 A, Sig=254,20 Ref=380,80 (SOP 98 GRI...0FEB\HDR_GRIPPO_OLD_20FEB 2012-02-20 10-40-57\GRIPPO_1UL09.D) mau 1000 800 600 400 1µl injection to determine the first 3 peaks 200 0 0 1 2 3 4 5 mau DAD1 A, Sig=254,20 Ref=380,80 (SOP 98 GRI...0FEB\HDR_GRIPPO_OLD_20FEB 2012-02-20 10-40-57\GRIPPO_5UL09.D) Paracetamol Vitamin C 3000 3800 2000 min 5µl injection to determine the last peak and further impurities The first 2 peaks are out of linear range 1000 Caffeine Chlorphenamine 0 0 1 2 3 4 5 min 26

2 Injections needed if a conventional DAD is used mau 1 Chlorphenamine DAD1 A, Sig=254,20 Ref=380,80 (SOP 98 GRI...0FEB\HDR_GRIPPO_OLD_20FEB 2012-02-20 10-40-57\GRIPPO_1UL09.D) DAD1 A, Sig=254,20 Ref=380,80 (SOP 98 GRI...0FEB\HDR_GRIPPO_OLD_20FEB 2012-02-20 10-40-57\GRIPPO_5UL10.D) 0.8 mau 20 Chlorphenamine 0.6 0.4 Imp 4 17.5 0.2 Imp 3 15 0 12.5-0.2 10 4.6 4.7 4.8 4.9 5 5.1 5.2 5.3 min 7.5 5 2.5 0 Imp 3 Red: 5µl injection with 21.8mAU peak height for Chlorphenamine Blue: 1µl injection with 3.7mAU peak height for Chlorphenamine Imp 4 4 4.5 5 5.5 6 min 27

Comparison of old DAD vs. HDR DAD, 5µl injection mau 4000 3500 3000 DAD1 K, Sig=254,20 Ref=380,80 (SOP 98 GRI...B\HDR_GRIPPO_HDR_21FEB 2012-02-21 07-51-02\GRIPPO_HDR5UL09.D) DAD1 A, Sig=254,20 Ref=380,80 (SOP 98 GRI...0FEB\HDR_GRIPPO_OLD_20FEB 2012-02-20 10-40-57\GRIPPO_5UL09.D) Vitamin C Paracetamol Red conventional DAD: 2 peaks out of linear range with 5µl injection 2500 2000 Blue HDR DAD: all peaks within linear range (up to 6AU) 1500 1000 500 0 Caffeine Chlorphenamine 0 1 2 3 4 5 min 28

mau 20 15 Comparison of conventional DAD and HDR DAD, 5µl injection DAD1 K, Sig=254,20 Ref=380,80 (SOP 98 GRI...B\HDR_GRIPPO_HDR_21FEB 2012-02-21 07-51-02\GRIPPO_HDR5UL09.D) DAD1 A, Sig=254,20 Ref=380,80 (SOP 98 GRI...0FEB\HDR_GRIPPO_OLD_20FEB 2012-02-20 10-40-57\GRIPPO_5UL09.D) Vitamin C Paracetamol Caffeine Red conventional DAD: determination of impurities and chlorphenamine in a second run Chlorphenamine Blue HDR DAD: determination of all peaks in one run 10 Imp 1 Imp 2 Imp 3 Imp 4 5 0 1 2 3 4 5 min 29

RSD Area (%) Comparison of area precision 3 Comparison of Area Precision 14.908 13.013 5.37 5.723 2.5 2 1.5 1 HDR Signal Conv.DAD signal (1µl) Conv.DAD (5µl) 0.5 0 HDR DAD 5µl injection volume for detemination of all compounds (blue) Conventional DAD: 1µl injection volume for determination of Vit C, paracetamol and Caffeine (orange) 5µl injection volume for determination of Chlorphenamine and further impurities (green) 30

Summary With the Agilent HDR DAD the determination of low and high doses drugs is possible in one run wheras the complete detemination of all drugs with a conventional DAD needs 2 injections with different injection volumes Further improved precision and lower detection limits are achieved compared to a conventional DAD 31

The new Agilent 1290 Infinity Quaternary LC How binary pump-like performance can enhance your lab efficiency 32

The 1290 Infinity Quaternary LC System Leveraging the Performance of the 1290 Infinity Binary LC System 1290 Infinity DAD with 60mm cell (& HDR optional) 1290 Infinity TCC with broadest valve selectivity 1290 Infinity Autosampler (with Flexible Cube for lowest carry-over) 1290 Infinity Quaternary Pump 33

High Pressure vs. Low Pressure Mixing Principle Binary pump High Pressure Mixing Quaternary pump Low Pressure Mixing Combination and mixing of mobile phases after the pump head Combination and mixing of mobile phases after the pump head Possible influence of excess volume on gradient ( flow accuracy!) Combination and mixing by low-pressure proportioning valve before the pump head Mixing by low-pressure proportioning valve before the pump head No influence of excess volume on gradient, but on composition accuracy! 34

The Story of the 1290 Infinity Quaternary Pump is a Story about Accuracy!! 3 Crucial Points to achieve ultimate quaternary pump performance (low pressure mixing!): 1. For best performance you must know your eluents 35

The Story of the 1290 Infinity Quaternary Pump is a Story about Accuracy!! 3 Crucial Points to achieve ultimate quaternary pump performance (low pressure mixing!): 1. For best performance you must know your eluents 2. Pump intelligence - Active Damping - with high pump resolution (~300 pl minimum step) 36

The Story of the 1290 Infinity Quaternary Pump is a Story about Accuracy!! 3 Crucial Points to achieve ultimate quaternary pump performance (low pressure mixing!): 1. For best performance you must know your eluents 2. Pump intelligence - Active Damping - with high pump resolution (~300 pl minimum step) 3. New InletWeaver using proven Jet Weaver technology 37

The Story of the 1290 Infinity Quaternary Pump is a Story about Accuracy!! 3 Crucial Points to achieve ultimate quaternary pump performance (low pressure mixing!): 1. For best performance you must know your eluents 2. Pump intelligence - Active Damping - with high pump resolution (~300 pl minimum step) 3. New InletWeaver using proven Jet Weaver technology The 1290 Infinity Quaternary Pump offers the highest accuracy and precision over the full application range! 38

1290 Infinity Quaternary Pump - Isocratic Analysis mau 600 500 400 300 0.003 0.0025 0.002 0.0015 0.001 0.0005 0 RT SD data Peak1 Peak2 Peak3 Peak4 200 100 0 0 1 2 3 4 5 6 7 8 min 39

1290 Infinity Quaternary Pump - Analysis of RR sample with conventional gradient method 0.0025 RT SD data 0.002 mau 0.0015 120 100 80 0.001 0.0005 0 Peak1 Peak2 Peak3 Peak4 Peak5 Peak6 Peak7 Peak8 Peak9 60 40 20 0 2 4 6 8 10 12 min 40

1290 Infinity Quaternary Pump Various tools enabling the high performance Inlet-Weaver Switchable Jet Weaver Mixer 4-channel Degasser Multi-Purpose- Valve MCGV (Multi- Channel-Gradient- Valve) Pump Head In-line Filter 41

Multipurpose valve functions for highest comfort Standard Application for standard Delay Volume 42

Multipurpose valve functions for highest comfort Extra Mixing Volume for lowest baseline ripple (TFA applications) 43

Multipurpose valve functions for highest comfort Automatic Purging 44

Multipurpose valve functions for highest comfort Automatic filter backflush 45

1290 Infinity Quaternary Pump - BlendAssist Simple tool for online-dilution of modifiers and gradient set-up You need different concentrations of modifiers in your analysis, would like to have just one stocksolution and do online dilution to profite from the quaternary mixing capability of your pump? Here is a simple tool BlendAssist! Water Water 1% TFA Desired method conditions - example: 1. 5 to 95% gradient of ACN with 0.1% TFA in Water and 0.08% TFA in ACN 2. 20 80% gradient of ACN with 0.5% TFA in Water and 0.4% TFA in ACN Without BlendAssist you need to either pre-mix the required solvents or by using stock-solutions of TFA in Water and ACN to program complex gradients (%A, B, C, D). ACN ACN 1% TFA With BlendAssist: just program your binary organic/aqueous gradient and define the dilution factor! 46

Example: Isocratic analysis of Glucocorticoids dynamically vs. premixed solvents Isocratic composition by dynamic mixing: A:B=70:30 Isocratic composition by premixed solvent: A:B=70:30 Which method is better? 47

RT Variation based on solvent mixtures - Influence of 1% deviation of solvent composition mau Hydrocortisone 30 25 Beclomethasone-di-proprionate 20 15 Hydrocortisone acetate 10 5 0 1 1.5 2 2.5 3 3.5 min 71% ACN 69% ACN 70% ACN 48

Analysis of Glucocorticoids - Using a dynamically mixed mobile phase mau 35 Hydrocortisone A:B=70:30 30 Beclomethasone-di-proprionate 25 20 Hydrocortisone acetate 15 10 5 0 0 1 2 3 4 min 49

Analysis of Glucocorticoids - Comparing dynamically mixed mobile phase vs. user influence A:B=70:30 mau 50 40 30 20 10 0 User 1 User 2 User 3 1 1.5 2 2.5 3 3.5 min 50

RSD RT (%) Analysis of Glucocorticoids - Comparing dynamically mixed mobile phase vs. user influence 1.2 RSD RT under different conditions, every 10 th run 1 0.8 0.6 RSD premixed 1user RSD premixed 3users RSD dynamically mixed 0.4 0.2 0 51

1290 Infinity Quaternary Pump Application Areas Method Development Automated Workflows & Walkup Systems Quality Control & Quality Assurance (QA/QC) Drug Discovery Drug Development Food Safety & Enviromental Analysis Metabolomics Forensics & Doping Control Front-End for Mass Spectrometer 52

1290 Infinity Quaternary Pump Conclusion Full 1290 Infinity LC Power range Highest composition precision and accuracy, solvent independent and across pressure and flow rate range Full application range with binary-like pump performance! Blend Assist for Buffer/Additive Blending ISET-ready! Full flexibility! 53

VIELEN DANK FÜR IHRE AUFMERKSAMKEIT!! 54