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Analysis of Dioxins and dl-PCBs with High Resolution and Triple ...

Analysis of Dioxins and dl-PCBs with High Resolution and Triple ...

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The world leader in serving science<br />

<strong>Analysis</strong> <strong>of</strong> <strong>Dioxins</strong> <strong>and</strong> <strong>dl</strong>-<strong>PCBs</strong> <strong>with</strong><br />

<strong>High</strong> <strong>Resolution</strong> <strong>and</strong> <strong>Triple</strong> Quadrupole<br />

GC/MS<br />

Using the TargetQuan S<strong>of</strong>tware Suite<br />

Hans-Joachim Huebschmann<br />

GC/MS Technology Manager, Thermo Fisher Scientific<br />

Frank Theobald<br />

Environmental Consulting, Cologne


Target Compound <strong>Analysis</strong> <strong>with</strong> <strong>High</strong>est Selectivity<br />

2<br />

Selectivity for Trace <strong>Analysis</strong><br />

<strong>High</strong> <strong>Resolution</strong> or MS/MS?<br />

The New DFS Analyzer Concept<br />

TSQ <strong>Triple</strong> Quad Technology<br />

Solutions for Food Safety <strong>and</strong><br />

Environmental <strong>Analysis</strong><br />

• Pesticides<br />

• <strong>Dioxins</strong> <strong>and</strong> <strong>dl</strong>-<strong>PCBs</strong><br />

• Brominated Flame Retardants<br />

TargetQuan


Parathion-Ethyl – Structure Specific Selectivity<br />

100<br />

50<br />

MS/MS<br />

Product Ion<br />

m/z 109<br />

C 2 H 6 OPS +<br />

29<br />

65<br />

81<br />

97<br />

109<br />

125<br />

139<br />

39<br />

15<br />

0<br />

10 20 30 40 50 60 70 80 90 100 110 120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 280 290 300<br />

(mainlib) Parathion<br />

45 75<br />

150<br />

218<br />

172<br />

201<br />

246<br />

275<br />

155<br />

3<br />

186<br />

O<br />

O<br />

N<br />

S<br />

P<br />

O<br />

O<br />

O<br />

235<br />

263<br />

291<br />

M + m/z 291<br />

MS/MS<br />

Precursor<br />

Nominal<br />

Mass Axis


Parathion – Accurate Mass Selectivity<br />

C10H14NO5PS: C10 H14 N1 O5 P1 S1 p(gss, s/p:40) Chrg...<br />

Relative Abundance<br />

100<br />

95<br />

90<br />

85<br />

80<br />

75<br />

70<br />

65<br />

60<br />

55<br />

50<br />

45<br />

40<br />

35<br />

30<br />

25<br />

20<br />

15<br />

10<br />

5<br />

0<br />

291.03248<br />

C 10 H 14 NO 5 PS<br />

M + Accurate Mass<br />

m/z 291.03248<br />

HRMS MID<br />

measurement only on<br />

m/z 291.03248<br />

<strong>Resolution</strong> Power<br />

R = 10,000<br />

292.03544<br />

291.0 291.2 291.4 291.6 291.8 292.0 292.2 292.4 292.6 292.8 293.0 293.2 293.4<br />

m/z<br />

4<br />

100<br />

50<br />

29<br />

65<br />

81<br />

97<br />

109<br />

39<br />

15<br />

0<br />

10 20 30 40 50 60 70 80 90 100 110 120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 280 290 300<br />

(mainlib) Parathion<br />

45 75<br />

150<br />

218<br />

172<br />

201<br />

246<br />

275<br />

293.03080<br />

125<br />

139<br />

155<br />

186<br />

O<br />

O<br />

N<br />

S<br />

P<br />

O<br />

O<br />

O<br />

235<br />

263<br />

291<br />

Accurate<br />

Mass Axis


Why <strong>High</strong> Selectivity <strong>with</strong> “<strong>High</strong> <strong>Resolution</strong>” ?<br />

Low <strong>Resolution</strong><br />

Yet another<br />

chlorinated<br />

compound<br />

TCDD<br />

<strong>High</strong> <strong>Resolution</strong><br />

Analytical Arguments<br />

• Get ultimate selectivity for “high res MID”<br />

• Get rid <strong>of</strong> isobaric background<br />

• Get ultimate specificity for “accurate mass”<br />

• Target compound confirmation<br />

• Structure elucidation<br />

Legal Aspects Require …<br />

… target compound confirmation<br />

… positive assay <strong>of</strong> the target molecule<br />

… results <strong>with</strong>st<strong>and</strong>ing any legal interrogation<br />

5


HRMS Confirmation in Sports Doping<br />

Mass Selective<br />

m/z:335<br />

m/z:336<br />

3:10 3:15 3:20 3:25 3:30 3:35<br />

Accurate Mass<br />

<strong>High</strong> <strong>Resolution</strong><br />

Low <strong>Resolution</strong> (Quadrupole) <strong>High</strong> Selectivity<br />

<strong>High</strong> Specificity<br />

m/z:335.069<br />

m/z:336.058<br />

Separation <strong>of</strong> the Met<strong>and</strong>ienone<br />

metabolite 18-nor-EMD from<br />

Stearic Acid at a trace level <strong>of</strong><br />


Quinoxyfen in Hops using SIM <strong>and</strong> MS/MS<br />

RT: 17.13 - 27.39<br />

Relative Abundance<br />

Relative Abundance<br />

Relative Abundance<br />

Relative Abundance<br />

Relative Abundance<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

DSQ II<br />

SIM Mode<br />

19.61<br />

RT: 23.76<br />

NL: 6.37E4<br />

m/z= 236.50-237.50 F: + c SIM<br />

24.01<br />

ms [236.50-237.50,<br />

271.50-272.50, 306.50-307.50]<br />

20.27 20.40 21.09 21.30<br />

21.67<br />

22.17<br />

22.52 22.97<br />

23.28<br />

23.55 24.11 24.55 25.35<br />

25.52<br />

25.65<br />

25.87<br />

26.45 26.78<br />

MS probe20f_sim<br />

19.65 20.15<br />

18 19 20 21 22 23 24 25 26 27<br />

Time (min)<br />

22.93<br />

7<br />

23.53<br />

RT: 23.76<br />

20.19 23.43 24.55<br />

20.57 21.25 22.17 22.41 24.02 24.67 25.48 26.26<br />

20.57<br />

TSQ Quantum GC<br />

MS/MS (SRM Mode)<br />

RT: 23.76<br />

23.13 24.17<br />

22.93 25.18 25.34 26.31 27.09<br />

23.37<br />

26.46<br />

21.67<br />

21.89 22.52<br />

21.15<br />

RT: 23.77<br />

RT: 23.77<br />

24.59<br />

25.37<br />

26.62<br />

27.35<br />

NL: 2.67E4<br />

m/z= 271.50-272.50 F: + c SIM<br />

ms [236.50-237.50,<br />

271.50-272.50, 306.50-307.50]<br />

MS probe20f_sim<br />

NL: 9.94E3<br />

m/z= 306.50-307.50 F: + c SIM<br />

ms [236.50-237.50,<br />

271.50-272.50, 306.50-307.50]<br />

MS probe20f_sim<br />

NL: 6.10E5<br />

m/z= 207.50-208.50 F: + c EI<br />

SRM ms2 237.000<br />

[207.999-208.001] MS<br />

Genesis Probe20F<br />

Superior Selectivity<br />

Free from sample matrix<br />

NL: 1.06E6<br />

m/z= 236.50-237.50 F: + c EI<br />

SRM ms2 272.000<br />

[236.999-237.001] MS<br />

Genesis Probe20F


The world leader in serving science<br />

DFS<br />

<strong>High</strong> <strong>Resolution</strong> GC/MS<br />

DFS Product Details<br />

The New Analyzer Concept


New DFS Ion Optics – Clear <strong>and</strong> Concise<br />

9


DFS Analyzer - New Radially Lamelated Magnet<br />

• Smaller, less weight<br />

• Allows for compact instrument<br />

• All analyzer components stay<br />

on instrument during<br />

shipment<br />

• Field probe for unique calibration<br />

• Fastest scanning speeds<br />

10


DFS Common Instrument Control S<strong>of</strong>tware<br />

Makes the DFS as easy to operate as a Benchtop MS<br />

11<br />

• Common User Interface<br />

• known from<br />

• DSQ, PolarisQ or<br />

• LCQ, LTQ series<br />

• Auto Tune<br />

• Auto <strong>Resolution</strong>


The world leader in serving science<br />

TSQ Quantum GC<br />

<strong>Triple</strong> Quadrupole GC/MS<br />

TSQ Product Details<br />

The Quantum Analyzer Concept


TSQ Quantum GC: Selected Reaction Monitoring<br />

Purpose: Quantitation<br />

on a single product ion, no spectrum<br />

“Monitor a Transition”<br />

from Precursor to Product Ion<br />

Park Q1 on precursor ion<br />

e.g. Parathion m/z 291<br />

13<br />

Park Q3 on product ion<br />

SRM on m/z 109


Inside the TSQ Quantum GC<br />

Conversion Dynode + Multiplier<br />

Q3<br />

Collision<br />

Cell (Q2)<br />

Q1<br />

14<br />

Turbo<br />

DuraBrite<br />

Ion Source


Why Hyperbolic Quadrupoles ?<br />

TSQ 7000<br />

1993 to 2000<br />

r 0 = 4 mm<br />

L = 250 mm<br />

Hyperbolic Quadrupoles<br />

* Patented HyperQuad Advantage available <strong>with</strong> TSQ Discovery<br />

15<br />

TSQ Quantum*<br />

2001 to …<br />

r 0 = 4/6 mm<br />

L = 250 mm<br />

• Same basic design as predecessor TSQ 7000.<br />

• True hyperbolic pole face <strong>with</strong> high-precision<br />

• Improved Ion Transmission <strong>and</strong> Sensitivity<br />

• Extended field radius - TSQ Quantum GC 4 mm<br />

• Improved Selectivity – Uniquely increased resolution<br />

• Improved Mass Peak Shape - With quads <strong>of</strong> 250 mm length


TSQ Quantum GC – St<strong>and</strong>ard <strong>Resolution</strong> at 0.7 FWHM<br />

0.7 u<br />

Only TSQ Quantum GC<br />

1.0 u<br />

16<br />

2.0 u<br />

3.0 u<br />

m/z 300/ 0.7 = R 428<br />

m/z 500/ 0.7 = R 714<br />

m/z 1000/ 0.7 = R 1428<br />

Other manufacturers open up<br />

Q1 resolution to a multiple<br />

<strong>of</strong> unit resolution to increase<br />

ion transmission<br />

but severely sacrifice selectivity.


<strong>High</strong>ly Resolved Q1 SRM – Increased Selectivity<br />

0.4 u !<br />

0.7 u<br />

H-SRM Mode<br />

Only TSQ Quantum GC<br />

17<br />

Increased Q1 resolution<br />

Increases SRM selectivity<br />

<strong>with</strong>out loss<br />

in ion transmission<br />

due to hyperbolic<br />

quadrupoles


TSQ Quantum GC - The Innovative Collision Cell<br />

Square Quad Collision Cell<br />

<strong>High</strong> Speed + <strong>High</strong> Sensitivity:<br />

Improved SRM Efficiency<br />

• 5 x higher than former octapole cells<br />

• 185 mm long ion path<br />

No Neutral Noise<br />

• 90 Degree<br />

Memory Eliminated<br />

• Active “cleaning”<br />

• No false positives at low LOQ<br />

Entrance lens<br />

assembly,<br />

controls collision<br />

energy<br />

18<br />

Collision cell housing,<br />

Argon, ca. 4 mTorr<br />

Exit lens<br />

assembly<br />

Square quadrupole<br />

collision cell


Quinoxyfen in Hops using SIM <strong>and</strong> MS/MS<br />

RT: 17.13 - 27.39<br />

Relative Abundance<br />

Relative Abundance<br />

Relative Abundance<br />

Relative Abundance<br />

Relative Abundance<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

DSQII<br />

SIM Mode<br />

19.61<br />

RT: 23.76<br />

NL: 6.37E4<br />

m/z= 236.50-237.50 F: + c SIM<br />

24.01<br />

ms [236.50-237.50,<br />

271.50-272.50, 306.50-307.50]<br />

20.27 20.40 21.09 21.30<br />

21.67<br />

22.17<br />

22.52 22.97<br />

23.28<br />

23.55 24.11 24.55 25.35<br />

25.52<br />

25.65<br />

25.87<br />

26.45 26.78<br />

MS probe20f_sim<br />

19.65 20.15<br />

18 19 20 21 22 23 24 25 26 27<br />

Time (min)<br />

22.93<br />

19<br />

23.53<br />

RT: 23.76<br />

20.19 23.43 24.55<br />

20.57 21.25 22.17 22.41 24.02 24.67 25.48 26.26<br />

20.57<br />

TSQ Quantum GC<br />

MS/MS (SRM Mode)<br />

RT: 23.76<br />

23.13 24.17<br />

22.93 25.18 25.34 26.31 27.09<br />

23.37<br />

26.46<br />

21.67<br />

21.89 22.52<br />

21.15<br />

RT: 23.77<br />

RT: 23.77<br />

24.59<br />

25.37<br />

26.62<br />

27.35<br />

NL: 2.67E4<br />

m/z= 271.50-272.50 F: + c SIM<br />

ms [236.50-237.50,<br />

271.50-272.50, 306.50-307.50]<br />

MS probe20f_sim<br />

NL: 9.94E3<br />

m/z= 306.50-307.50 F: + c SIM<br />

ms [236.50-237.50,<br />

271.50-272.50, 306.50-307.50]<br />

MS probe20f_sim<br />

NL: 6.10E5<br />

m/z= 207.50-208.50 F: + c EI<br />

SRM ms2 237.000<br />

[207.999-208.001] MS<br />

Genesis Probe20F<br />

Superior Selectivity<br />

Free from sample matrix<br />

NL: 1.06E6<br />

m/z= 236.50-237.50 F: + c EI<br />

SRM ms2 272.000<br />

[236.999-237.001] MS<br />

Genesis Probe20F


QED MS/MS for Structural Confirmation<br />

100<br />

Set level close<br />

50 to MRL<br />

concentration<br />

Relative Abundance<br />

90<br />

80<br />

70<br />

60<br />

40<br />

30<br />

20<br />

10<br />

0<br />

SRM chromatogram<br />

RT:10.0<br />

9.8 10.0 10.2 10.4 10.6<br />

min<br />

20<br />

Intensity<br />

SRM data point<br />

MS/MS spectrum<br />

m/z


<strong>Triple</strong> Quadrupole: QED - SRM Switched to MSMS<br />

Purpose: Confirmation <strong>of</strong> a positive result<br />

Park Q1 on precursor ion<br />

e.g. Quinalphos m/z 274<br />

Library Search for Identification<br />

21<br />

SRM: QED: Scan Monitor Q3 in for Q3 the the<br />

target product product ion spectrum ion


RER – Information Rich Product Ion Spectra<br />

RER<br />

Reverse Energy Ramp<br />

17Oct04 #204-214 RT: 1.78-1.85 AV: 5 NL: 1.06E6<br />

F: + c ESI sid=7.00 Full ms2 184.000@cid10.00 [30.000-190.000]<br />

143.0<br />

100<br />

Relative Abundance<br />

80<br />

60<br />

40<br />

20<br />

0<br />

147.9 166.2<br />

40 60 80 100 120 140 160 180<br />

m/z<br />

17Oct04 #203-213 RT: 1.77-1.84 AV: 5 NL: 5.12E4<br />

F: + c ESI sid=7.00 Full ms2 184.000@cid30.00 [30.000-190.000]<br />

95.1<br />

100<br />

Relative Abundance<br />

80<br />

60<br />

40<br />

20<br />

0<br />

Colligion Energy<br />

10 eV<br />

94.2<br />

Colligion Energy<br />

30 eV<br />

125.0<br />

148.0<br />

49.5<br />

98.3<br />

55.6 92.1 110.5 143.0<br />

78.9 165.5<br />

40 60 80 100 120 140 160 180<br />

m/z<br />

184.1<br />

17Oct02 #104-111 RT: 1.75-1.87 AV: 8 NL: 8.07E4<br />

T: + c ESI sid=7.00 Full ms2 184.000@cid15.00 [30.000-190.000]<br />

143.0<br />

100<br />

Relative Abundance<br />

RER spectrum<br />

80<br />

60<br />

40<br />

20<br />

0<br />

22<br />

94.1<br />

95.1<br />

124.9<br />

111.1<br />

148.3<br />

49.5 64.3 79.1<br />

129.3 167.4<br />

40 60 80 100 120 140 160 180<br />

m/z<br />

40<br />

30<br />

20<br />

184.1<br />

10<br />

コリジョンエネルギー(eV)


The world leader in serving science<br />

Multi-Residue <strong>Analysis</strong> <strong>of</strong><br />

Pesticides in Food<br />

using H-SRM<br />

on the TSQ Quantum GC<br />

by Kuniyo Sugitate<br />

Application Specialist<br />

Thermo Fisher Scientific, Yokohama, Japan


GC-MS/MS Method: EI H-SRM<br />

GC TRACE GC ultra<br />

Column : 30 m x 0.25 mm I.D. x 0.25 µm 5% Phenyl Phase<br />

Injection mode : Splitless <strong>with</strong> Surge (200 kPa,1 min)<br />

Injection Temp : 240 ℃<br />

Oven Temp : 80℃(1 min)→20 ℃/min→180 ℃→5℃/min→280 ℃(10 min)<br />

Flow : constant flow 1.2 mL/min<br />

Transferline Temp : 280 ℃<br />

AS TriPlus<br />

Injection Volume : 1 μL<br />

Injection mode : Hot Nee<strong>dl</strong>e<br />

Syringe : 80 mm Nee<strong>dl</strong>e<br />

MS TSQ Quantum GC<br />

Ion Source Temp : 220 ℃<br />

Emission Current : 25 μA<br />

Ionization mode : EI<br />

Ion volume : Closed EI<br />

Analytical mode: SRM (Selected Reaction Monitoring)<br />

Scan width : 0.002 m/z<br />

Scan Time : 0.002 sec, 0.005 sec, 0.01 sec<br />

Peak Width for H-SRM: Q1: 0.4 Da, Q3: 0.7 Da<br />

Collision Gas Pressure : 1.2 mTorr (Ar)<br />

24


Variable Segments <strong>with</strong> > 300 Transitions/s<br />

Dwell time ≥ 2 ms<br />

>300 Transitions/s<br />

=<br />

>300 Targets/s<br />

25<br />

Segments are<br />

adjusted by using a<br />

st<strong>and</strong>ard<br />

chromatogram


Sensitivity at 1/10 MRL - 1 ppb in Green Pepper<br />

green-paprika_spiked_1ppb 2007/03/29 15:57:47 green-paprika_spiked_1ppb<br />

Rti-5MS scan time 0.010 SETTIME=0.001<br />

RT: 15.32 - 18.40 SM: 5G<br />

100<br />

15.82<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

15.84<br />

16.25<br />

16.43<br />

16.76<br />

Pyriminobac<br />

-methyl<br />

Bupirimate<br />

Thifluzamide<br />

Fenoxanil<br />

Chlorbenzilate<br />

16.86<br />

-Z<br />

16 17 18<br />

Time (min)<br />

NL: 2.71E4<br />

TIC F: + c CI SRM ms2<br />

316.050@cid10.00<br />

[207.999-208.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 9.50E4<br />

TIC F: + c CI SRM ms2<br />

448.730@cid10.00<br />

[428.999-429.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 3.54E4<br />

TIC F: + c CI SRM ms2<br />

293.010@cid20.00<br />

[154.999-155.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 2.09E5<br />

TIC F: + c CI SRM ms2<br />

250.940@cid15.00<br />

[138.999-139.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 2.12E5<br />

18.19 TIC F: + c CI SRM ms2<br />

302.020@cid15.00<br />

[255.799-255.801] MS<br />

green-paprika_spiked_1ppb<br />

-E<br />

Oxadixyl<br />

NL: 6.54E4<br />

TIC F: + c CI SRM ms2<br />

163.030@cid10.00<br />

[131.999-132.001] MS<br />

green-paprika_spiked_1ppb<br />

RT: 16.60 - 18.66 SM: 5G<br />

100<br />

17.30<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

17.38<br />

Edifenphos<br />

Quinoxyfen<br />

Lenacil<br />

Triazophos<br />

17.72<br />

17.74<br />

17.78<br />

Trifloxystrobin<br />

Fluacrypyrim<br />

18.01<br />

17.0 17.5<br />

Time (min)<br />

18.0 18.5<br />

26<br />

NL: 3.32E4<br />

TIC F: + c CI SRM ms2<br />

256.940@cid10.00<br />

[161.999-162.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 4.61E4<br />

TIC F: + c CI SRM ms2<br />

188.970@cid10.00<br />

[128.899-128.901] MS<br />

green-paprika_spiked_1ppb<br />

NL: 4.48E4<br />

TIC F: + c CI SRM ms2<br />

309.910@cid10.00<br />

[172.999-173.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 1.59E5<br />

TIC F: + c CI SRM ms2<br />

271.950@cid10.00<br />

[236.999-237.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 7.33E4<br />

TIC F: + c CI SRM ms2<br />

152.960@cid15.00<br />

[135.999-136.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 2.06E4<br />

TIC F: + c CI SRM ms2<br />

222.030@cid10.00<br />

[161.899-161.901] MS<br />

green-paprika_spiked_1ppb<br />

RT: 17.64 - 20.09 SM: 5G<br />

100<br />

18.19<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

18.39<br />

Pyriminobac<br />

-methyl-E<br />

18.51<br />

Mefenpyr<br />

-diethyl<br />

Pyributicarb<br />

Tebuconazole<br />

19.15<br />

19.24<br />

Pyridafenthion<br />

Dicl<strong>of</strong>op-methyl<br />

19.46<br />

18 19<br />

Time (min)<br />

20<br />

NL: 1.93E5<br />

TIC F: + c CI SRM ms2<br />

302.020@cid15.00<br />

[255.799-255.801] MS<br />

green-paprika_spiked_1ppb<br />

NL: 5.74E4<br />

TIC F: + c CI SRM ms2<br />

250.030@cid20.00<br />

[124.999-125.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 7.13E4<br />

TIC F: + c CI SRM ms2<br />

252.930@cid15.00<br />

[161.999-162.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 1.06E5<br />

TIC F: + c CI SRM ms2<br />

252.950@cid20.00<br />

[188.999-189.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 2.04E5<br />

TIC F: + c CI SRM ms2<br />

164.970@cid10.00<br />

[107.999-108.001] MS<br />

green-paprika_spiked_1ppb<br />

NL: 5.00E4<br />

TIC F: + c CI SRM ms2<br />

339.940@cid10.00<br />

[198.999-199.001] MS<br />

green-paprika_spiked_1ppb


Specificity: Enhanced <strong>Resolution</strong> (H-SRM)<br />

RT:8.00 - 12.00<br />

100<br />

Relative Abundance<br />

95<br />

90<br />

85<br />

80<br />

75<br />

70<br />

65<br />

60<br />

55<br />

50<br />

45<br />

40 8.02<br />

35<br />

30<br />

25<br />

20<br />

15<br />

10<br />

5<br />

0.7Da<br />

RT: 9.90<br />

9.95<br />

10.60<br />

9.97<br />

10.32<br />

10.74<br />

8.688.75 10.02<br />

11.35<br />

10.43 11.83<br />

8.39 9.78 10.99 11.46<br />

8.33 8.53 9.51 10.16<br />

11.11 11.64<br />

9.15<br />

8.20 9.13 9.17 9.68<br />

11.27<br />

0<br />

8.0 8.5 9.0 9.5 10.0<br />

Time (min)<br />

10.5 11.0 11.5 12.0<br />

RT:11.00 - 14.00<br />

100<br />

Relative Abundance<br />

95<br />

90<br />

85<br />

80<br />

75<br />

70<br />

65<br />

60<br />

55<br />

50<br />

45<br />

40<br />

35<br />

30<br />

11.35<br />

11.42<br />

0.7Da<br />

11.97<br />

RT: 12.60<br />

12.53<br />

12.83<br />

12.90<br />

25<br />

20<br />

15<br />

12.50<br />

13.01<br />

13.54 13.96<br />

10<br />

5<br />

11.15<br />

0<br />

11.0 11.2<br />

12.68<br />

11.53 11.95<br />

12.30<br />

11.8311.93 12.19 12.38<br />

11.4 11.6 11.8 12.0 12.2 12.4 12.6 12.8<br />

Time (min)<br />

13.2413.34 13.04<br />

13.62 13.84<br />

13.16<br />

13.42<br />

13.0 13.2 13.4 13.6 13.8 14.0<br />

1 ppb samples<br />

Pyroquilon<br />

in Carrot<br />

Parathion in<br />

Green Pepper<br />

O<br />

N<br />

O P<br />

O<br />

O<br />

S<br />

N O<br />

27<br />

O<br />

RT:8.00 - 12.00<br />

100<br />

Relative Abundance<br />

95<br />

90<br />

85<br />

80<br />

75<br />

70<br />

65<br />

60<br />

55<br />

50<br />

45<br />

40<br />

35<br />

RT: 9.90<br />

H-SRM 0.4Da<br />

30<br />

25<br />

10.5810.61<br />

11.69<br />

20<br />

10.44<br />

10.86<br />

15 8.25 8.51 9.279.32 10<br />

9.43<br />

8.03 8.54<br />

8.999.17<br />

5 8.43 8.79 9.66<br />

8.94<br />

10.00 10.40<br />

10.68<br />

11.44<br />

11.1211.3811.46 11.75<br />

11.80<br />

0<br />

8.0 8.5 9.0 9.5 10.0<br />

Time (min)<br />

10.5 11.0 11.5 12.0<br />

RT:11.00 - 14.00<br />

100<br />

RT: 12.60<br />

Relative Abundance<br />

95<br />

90<br />

85<br />

80<br />

75<br />

70<br />

65<br />

60<br />

55<br />

50<br />

45<br />

40<br />

35<br />

30<br />

25<br />

20<br />

15<br />

10<br />

H-SRM 0.4Da<br />

5<br />

0<br />

11.1811.35 11.6611.7911.9912.0612.1912.30<br />

12.67 12.9813.1213.28<br />

13.5213.6513.75<br />

11.0 11.2 11.4 11.6 11.8 12.0 12.2 12.4 12.6 12.8<br />

Time (min)<br />

13.0 13.2 13.4 13.6 13.8 14.0


Area<br />

TSQ Quantum GC - Tetradifon<br />

5000000<br />

4800000<br />

4600000<br />

4400000<br />

4200000<br />

4000000<br />

3800000<br />

3600000<br />

3400000<br />

3200000<br />

3000000<br />

2800000<br />

2600000<br />

2400000<br />

2200000<br />

2000000<br />

1800000<br />

1600000<br />

1400000<br />

1200000<br />

1000000<br />

800000<br />

600000<br />

400000<br />

4.1 % RSD at 5 PPB<br />

Tetradifon<br />

Y = 761.05+45923.1*X R^2 = 0.9992 W: Equal<br />

200000<br />

0<br />

19.0 19.5 20.0 20.5 21.0 21.5<br />

0<br />

Time (min)<br />

0 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 95 100 105 110<br />

28<br />

RT: 18.9758 - 21.5239 SM: 3B<br />

Relative Abundance<br />

100<br />

95<br />

90<br />

85<br />

80<br />

75<br />

70<br />

65<br />

60<br />

55<br />

50<br />

45<br />

40<br />

35<br />

30<br />

25<br />

20<br />

15<br />

10<br />

5<br />

RT: 20.5244 NL: 2.00E4<br />

TIC F: + c CI SRM<br />

ms2<br />

355.750@cid10.00<br />

1 ppb<br />

[228.999-229.001]<br />

MS ICIS std_04


The world leader in serving science<br />

DFS<br />

<strong>High</strong> <strong>Resolution</strong> GC/MS<br />

Analytical Performance<br />

for Dioxin <strong>and</strong> <strong>dl</strong>-PCB <strong>Analysis</strong>


DFS Sensitivity for 100 fg Dioxin S/N > 1000:1 !<br />

30


DFS Sensitivity - 2 fg native tcdd (TargetQuan S<strong>of</strong>tware)<br />

31


DFS - TCDD in Biological Matrix Samples<br />

Ion ratio confirmation<br />

mass trace<br />

Quan ion mass trace<br />

15 fg/µL 2378-TCDD (2 µL inj. ) from complex matrix sample (blood)<br />

32


Robust Performance <strong>with</strong> Real Samples (Blood)<br />

Isotope ratio confirmation, ratio % for m/z 320/322<br />

At lowest LOQs, here at the 15 fg/µL level<br />

Robust performance over > 38 samples + 9 std runs<br />

Demonstrates compliance <strong>with</strong> EU <strong>and</strong> EPA 1613 regulations<br />

33


The world leader in serving science<br />

<strong>Dioxins</strong>/Furans <strong>and</strong> <strong>dl</strong>-<strong>PCBs</strong><br />

by EI SRM<br />

on TSQ Quantum GC<br />

Dirk Krumwiede<br />

Thermo Fisher, Bremen, Germany


TSQ Quantum GC PCDD/Fs EPA1613 CS1, 1/10 diluted<br />

C:\XCalibur\Data\dk_test\dio122 9/20/2007 4:31:46 PM 2 ul DF CS1 (1/10), 5 win, SRM<br />

SRM (pw 0.7), coll en 22, gas pressure 2.0, 40eV, 100 uA, closed EI vol., 30 m DB5MS (0.1), 120(2)-10-220(2)-3-260, scan width 0.002, ists 250, xline 290<br />

RT: 12.56 - 27.47<br />

13.65<br />

100<br />

Relative Abundance<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

100<br />

50<br />

0<br />

13.87<br />

13.76 14.72<br />

13.99<br />

14.15 14.66<br />

15.77<br />

16.46<br />

13.66 13.99<br />

15.66<br />

15.61<br />

16.61<br />

16.70<br />

15.76 16.46<br />

16.83<br />

18.74 18.85<br />

19.43 20.14<br />

17.57 18.49<br />

17.63<br />

20.27<br />

19.73 19.95<br />

19.63<br />

19.20<br />

20.57<br />

18.73 19.72 26.44<br />

20.13 21.75 23.05<br />

14.10 17.09 20.30 21.98 23.65 26.23<br />

14 16 18 20 22 24 26<br />

Time (min)<br />

35<br />

NL: 1.28E4<br />

TIC F: + c EI SRM ms2<br />

305.900<br />

[242.899-242.901] MS<br />

dio122<br />

NL: 1.33E4<br />

TIC F: + c EI SRM ms2<br />

321.900<br />

[258.899-258.901] MS<br />

dio122<br />

NL: 5.30E4<br />

TIC F: + c EI SRM ms2<br />

339.900<br />

[276.800-277.000] MS<br />

dio122<br />

NL: 4.53E4<br />

TIC F: + c EI SRM ms2<br />

355.900<br />

[292.800-293.000] MS<br />

dio122<br />

NL: 3.75E4<br />

TIC F: + c EI SRM ms2<br />

373.800<br />

[310.700-310.900] MS<br />

dio122<br />

NL: 3.74E4<br />

TIC F: + c EI SRM ms2<br />

389.800<br />

[326.700-326.900] MS<br />

dio122<br />

NL: 1.77E6<br />

TIC MS dio122<br />

tcdf<br />

tcdd<br />

pcdf<br />

pcdd<br />

hcdf<br />

hcdf<br />

TIC<br />

(concentrations <strong>of</strong> natives: tcdd/tcdf: 50 fg/µL; penta to hepta dioxins/furans: 250 fg/µL; octas: 500 fg/µL)


TSQ Quantum GC: Screenshot from a Fish Extract<br />

C:\XCalibur\...\dio220 9/21/2007 4:22:52 PM 1 ul dioxins fish extract 1<br />

SRM (pw 0.7), coll en 22, gas pressure 2.0, 40eV, 100 uA, closed EI vol., 30 m DB5MS (0.1), 120(2)-10-220(2)-3-260 sample 4278: Blue Swimmer Crab<br />

RT: 12.78 - 14.48<br />

Relative Abundance<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

RT: 12.96<br />

AA: 77093<br />

RT: 13.46<br />

AA: 118203<br />

RT: 13.99<br />

AA: 147134<br />

12.8 13.0 13.2 13.4 13.6 13.8 14.0 14.2 14.4<br />

Time (min)<br />

36<br />

RT: 14.09<br />

AA: 75177<br />

RT: 13.04<br />

AA: 42016<br />

RT: 13.09<br />

AA: 1119<br />

RT: 13.38<br />

AA: 1325<br />

RT: 13.53<br />

AA: 24861 RT: 13.71<br />

AA: 4143<br />

RT: 14.22<br />

AA: 21444<br />

RT: 12.96<br />

RT: 13.46<br />

AA: 107459<br />

RT: 13.99<br />

AA: 129040<br />

AA: 81402 RT: 14.09<br />

RT: 13.04<br />

AA: 75512<br />

AA: 40518<br />

RT: 13.38<br />

AA: 1490<br />

RT: 13.50<br />

AA: 27461 RT: 13.72<br />

AA: 4918<br />

RT: 13.82<br />

AA: 10033891<br />

RT: 14.22<br />

AA: 18253<br />

RT: 13.36<br />

AA: 1116<br />

RT: 13.83<br />

AA: 9604228<br />

RT: 13.94<br />

AA: 20934<br />

RT: 13.98<br />

AA: 11505<br />

RT: 14.09<br />

AA: 5193487<br />

RT: 14.09<br />

AA: 4897430<br />

RT: 14.22<br />

AA: 43397<br />

RT: 14.23<br />

AA: 36225<br />

NL: 4.95E4<br />

TIC F: + c EI SRM<br />

ms2 319.900<br />

[256.899-256.901]<br />

MS ICIS dio220<br />

NL: 4.64E4<br />

TIC F: + c EI SRM<br />

ms2 321.900<br />

[258.899-258.901]<br />

MS ICIS dio220<br />

NL: 3.83E6<br />

TIC F: + c EI SRM<br />

ms2 331.900<br />

[267.899-267.901]<br />

MS ICIS dio220<br />

NL: 3.65E6<br />

TIC F: + c EI SRM<br />

ms2 333.900<br />

[269.899-269.901]<br />

MS ICIS dio220<br />

Native tcdd<br />

Quan mass<br />

Native tcdd<br />

Ratio mass<br />

13 C12 TCDD<br />

Quan mass<br />

13 C12 TCDD<br />

Ratio mass


Penta-<strong>PCBs</strong> EPA 1668 St<strong>and</strong>ard – CS1 1 pg/µL<br />

C:\XCalibur\...\pcb408 9/27/2007 11:26:37 AM 1 ul PCB (68A-CS1, 1 pg/ul) SRM, 6 win, en 22<br />

40eV, 100 uA, closed EI vol., 30 m DB5MS (0.1), ists 250, xline 290, asamp an com 1, same cable<br />

RT: 18.13 - 21.24 SM: 3G<br />

Relative Abundance<br />

100<br />

80<br />

60<br />

40<br />

20<br />

100<br />

80<br />

60<br />

40<br />

20<br />

100<br />

80<br />

60<br />

40<br />

20<br />

100<br />

80<br />

60<br />

40<br />

20<br />

RT: 19.80<br />

RT: 19.65 RT: 20.15<br />

RT: 19.65<br />

RT: 19.80<br />

RT: 20.15<br />

RT: 18.39 RT: 19.64 RT: 20.14<br />

RT: 20.01<br />

RT: 18.70 RT: 18.91<br />

RT: 18.39 RT: 19.64 RT: 20.14<br />

RT: 20.25<br />

18.5 19.0 19.5 20.0 20.5 21.0<br />

Time (min)<br />

37<br />

RT: 20.25<br />

RT: 20.24<br />

RT: 20.54<br />

RT: 18.61 RT: 18.89 RT: 19.09<br />

RT: 20.24<br />

RT: 20.54<br />

RT: 20.73<br />

RT: 20.73<br />

RT: 20.73<br />

RT: 20.73<br />

RT: 20.88<br />

RT: 20.88<br />

NL: 2.87E5<br />

TIC F: + c EI SRM<br />

ms2 323.900<br />

[253.949-253.951]<br />

MS ICIS pcb408<br />

NL: 2.82E5<br />

TIC F: + c EI SRM<br />

ms2 325.900<br />

[255.949-255.951]<br />

MS ICIS pcb408<br />

NL: 2.75E7<br />

TIC F: + c EI SRM<br />

ms2 335.920<br />

[265.989-265.991]<br />

MS ICIS pcb408<br />

NL: 2.65E7<br />

TIC F: + c EI SRM<br />

ms2 337.920<br />

[267.989-267.991]<br />

MS ICIS pcb408<br />

penta PCB<br />

Quan mass<br />

penta PCB<br />

Ratio mass<br />

penta 13 C 12 -PCB<br />

Quan mass<br />

penta 13 C 12 -PCB<br />

Ratio mass


Mono-ortho PCB from Egg Extract, conc. ≥ 100 fg<br />

C:\XCalibur\...\pcb417 9/27/2007 4:34:44 PM 1 ul Egg, mono-ortho <strong>PCBs</strong> (Nr. 6), nonane (2d syrg)<br />

rediluted to 500 ul nonae in vial 6, 40eV, 100 uA, closed EI vol., 30 m DB5MS (0.1), ists 250, xline 290, asamp an com 1, same cable<br />

RT: 14.30 - 22.69 SM: 3G<br />

Relative Abundance<br />

100<br />

80<br />

60<br />

40<br />

20<br />

100<br />

80<br />

60<br />

40<br />

20<br />

100<br />

80<br />

60<br />

40<br />

20<br />

100<br />

80<br />

60<br />

40<br />

20<br />

RT: 14.47<br />

RT: 17.09<br />

RT: 18.72<br />

RT: 18.72<br />

RT: 19.61<br />

RT: 19.81<br />

RT: 19.81<br />

15 16 17 18 19 20 21 22<br />

Time (min)<br />

38<br />

RT: 20.75<br />

RT: 20.74<br />

RT: 17.10 RT: 22.43<br />

RT: 19.80<br />

RT: 20.14<br />

RT: 20.72<br />

RT: 19.64<br />

RT: 17.46 RT: 18.18<br />

RT: 20.97 RT: 21.80<br />

RT: 19.80 RT: 20.73<br />

RT: 20.14<br />

RT: 19.63<br />

RT: 16.59 RT: 17.44 RT: 18.17<br />

RT: 21.23 RT: 22.09<br />

NL: 1.02E5<br />

TIC F: + c EI SRM<br />

ms2 323.900<br />

[253.949-253.951]<br />

MS ICIS pcb417<br />

NL: 9.92E4<br />

TIC F: + c EI SRM<br />

ms2 325.900<br />

[255.949-255.951]<br />

MS ICIS pcb417<br />

NL: 1.78E6<br />

TIC F: + c EI SRM<br />

ms2 335.920<br />

[265.989-265.991]<br />

MS ICIS pcb417<br />

NL: 1.64E6<br />

TIC F: + c EI SRM<br />

ms2 337.920<br />

[267.989-267.991]<br />

MS ICIS pcb417<br />

penta PCB<br />

Quan mass<br />

penta PCB<br />

Ratio mass<br />

penta 13 C 12 -PCB<br />

Quan mass<br />

penta 13 C 12 -PCB<br />

Ratio mass


The world leader in serving science<br />

DFS<br />

<strong>High</strong> <strong>Resolution</strong> GC/MS<br />

DFS Product Details<br />

Productivity <strong>and</strong> Economics


DFS – The Unique Concept for Dual GC Configuration<br />

40<br />

2 TRACE GC Ultra GCs<br />

1 TriPlus Autosampler<br />

1 <strong>High</strong> <strong>Resolution</strong> MS<br />

Inject from one vial tray into two<br />

different GCs or columns<br />

Analyses on columns <strong>with</strong> different<br />

polarity <strong>with</strong>in one sequence<br />

Simultaneous dual GC operation<br />

For confirmatory analysis according<br />

to EPA 1613<br />

Analytical flexibility <strong>with</strong> different<br />

columns installed<br />

<strong>Dioxins</strong>, <strong>PCBs</strong>, BFRs, POPs …


Why 2 TRACE GC Ultra GCs ? Some Examples<br />

Using columns <strong>of</strong> different polarities<br />

• e.g. for dioxins:<br />

• TR-5MS <strong>with</strong> 360 dgs C max.<br />

• a polar column <strong>of</strong> e.g. 2330 type <strong>with</strong> 275 dgs C max<br />

Different length - Brominated flame retart<strong>and</strong>s (BFRs)<br />

• St<strong>and</strong>ard 30 m column<br />

• DecaPDE needs a very short column (5-6 m), cut in 1 datafile<br />

Increased sample throughput<br />

• While cooling <strong>of</strong>f the 1 st GC the 2 nd GC is ready for injection<br />

• Simultaneous runs <strong>with</strong> staggered injections<br />

Upgradeable to max <strong>of</strong> 4 columns at any time to fit individual<br />

needs.<br />

41


Dual GC – Sequential Operation<br />

AS inject<br />

START GC-1<br />

START DFS<br />

GC runtime 20 min<br />

Time savings<br />

AS inject<br />

Heat <strong>of</strong>f/Cooldown/Equilibration 5<br />

min<br />

START GC-2<br />

START DFS<br />

• Heat <strong>of</strong>f + cooldown +<br />

equilibration<br />

• > 20% for a 20 min run<br />

GC runtime 20 min<br />

42<br />

AS inject<br />

Heat <strong>of</strong>f/Cooldown/Equilibration 5<br />

min<br />

START GC<br />

START DFS<br />

GC runtime 20 min<br />

Heat <strong>of</strong>f/Cooldown<br />

Equilibration 5 min<br />

further analyses


Dual GC – Simultaneous Dual Data Acquisition<br />

AS inject<br />

START GC-1<br />

START DFS<br />

GC runtime 60 min<br />

Time savings<br />

AS inject<br />

START GC-2<br />

START DFS<br />

GC runtime 60 min<br />

• Only peak window acquired<br />

• 100% Duty cycle <strong>of</strong> DFS<br />

Double sample throughput<br />

Heat <strong>of</strong>f/Cooldown/Equilibration 5 min<br />

AS inject<br />

43<br />

START GC-1<br />

START DFS<br />

GC runtime 60 min<br />

Heat <strong>of</strong>f/Cooldown/Equilibration 5 min<br />

further analyses


Integrity <strong>of</strong> Chromatography - WHO <strong>PCBs</strong> - Marker <strong>PCBs</strong><br />

Courtesy Wessling Labs, Germany<br />

44


Integrity <strong>of</strong> Chromatography – PCDD <strong>and</strong> PCDF <strong>Analysis</strong><br />

Courtesy Wessling Labs, Germany<br />

45


Power Consumption – Save 100 000 € !<br />

DFS<br />

MS 1.9 kW<br />

GC 1.0 kW<br />

Data system 0.3 kW<br />

Water chiller 1.5 kW<br />

----------<br />

Sum 4.7 kW<br />

Power consumption per year<br />

41 MWh<br />

(= ca. 3,300 EUR * )<br />

46<br />

Competitor (diffusion pumps)<br />

MS 14.0 kW<br />

GC 1.0 kW<br />

Data system 0.3 kW<br />

Water chiller 11.0 kW<br />

----------<br />

Sum 26.3 kW<br />

Power consumption per year<br />

230 MWh<br />

(= ca. 18,400 EUR * )<br />

* calculations based on 0.08 EUR/kWh


The world leader in serving science<br />

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S<strong>of</strong>tware Suite for Isotope Dilution<br />

Quantitation<br />

Specially designed for<br />

EPA 1613, EPA 1668


TargetQuan – Spreadsheet<br />

48


TargetQuan – Retention Time Picker<br />

49


TargetQuan – Quan <strong>and</strong> Ratio Masses<br />

50


TargetQuan – Qualifiers <strong>and</strong> Limits<br />

51


TargetQuan – Structure <strong>of</strong> the Quantitation Method<br />

52


TargetQuan – Screen Views Organize Appearance<br />

53


TargetQuan – Screen View – Integration<br />

54


TargetQuan – Options for Integration<br />

55


TargetQuan – Screen View During Integration<br />

56


TargetQuan – Screen View <strong>with</strong> Integration Done<br />

57


TargetQuan – Multiple Targets <strong>with</strong> ISTD<br />

58


TargetQuan – Peak Display Options<br />

59


TargetQuan – Results in Spreadsheet View<br />

60


TargetQuan – Results Calculated Area <strong>and</strong> Height<br />

61


TargetQuan – Result QA/QC Status Report<br />

62


TargetQuan – Results <strong>with</strong> Failed Component<br />

63


TargetQuan – Manual Check <strong>and</strong> Integration<br />

64


TargetQuan – Result After Manual Integration<br />

65


TargetQuan – Compound <strong>with</strong> Response Curve<br />

66


TargetQuan – Report as pdf File<br />

67


TargetQuan – Report as Spreadsheet<br />

68


TargetQuan – Report <strong>with</strong> Graphics<br />

69


TargetQuan – Report Export to Excel<br />

70


TSQ Quantum GC – Pro<strong>of</strong> Statements<br />

Unique Target Compound Selectivity<br />

• Hyperbolic quads <strong>and</strong> H-SRM<br />

Superior Results <strong>with</strong> Complex Matrix Samples<br />

• Shorten sample clean-up<br />

• Reliable quantitation – peak integration<br />

Superior Sensitivity<br />

• Trace levels at your syringe tip<br />

Unique <strong>High</strong> Speed Data Acquisition<br />

• Especially multi-component trace analysis<br />

• For Fast GC applications<br />

<strong>High</strong> Productivity<br />

• Increased throughput – get results faster<br />

• Most cost efficient analysis<br />

Confirmation <strong>of</strong> Positive Compounds<br />

• In only one run<br />

Ease-<strong>of</strong>-Use<br />

• TargetQuan <strong>and</strong> QuanLab Workflow SW<br />

71


DFS GC/HRMS – Target Compound Confirmation<br />

Analytical Flexibility<br />

• Up to 4 columns stay permanently installed<br />

• Columns <strong>of</strong> different film type<br />

• Columns <strong>of</strong> different length<br />

• Injectors SSL, PTV, OC, Large Volume inj.<br />

• Manual or by common autosampler injection<br />

<strong>High</strong>est Productivity<br />

• Sequential Analyses<br />

• Simultaneous Dual GC Analyses<br />

Unparalleled Economics<br />

• Immediate results<br />

• 24/7 system availability<br />

• Cost per analysis cut down<br />

72


Thank you<br />

for your attention<br />

73

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