30.11.2012 Views

POLARIS GC/MS

POLARIS GC/MS

POLARIS GC/MS

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

<strong>POLARIS</strong> <strong>GC</strong>/<strong>MS</strong> n<br />

Optimized Ion Trap Mass Spectrometry<br />

for real-world sample analysis


<strong>POLARIS</strong> <strong>GC</strong>/<strong>MS</strong> n<br />

Introducing ion trap mass spectrometry<br />

The Finnigan Polaris is the latest ion<br />

trap mass spectrometer for gas<br />

chromatographic detection. It is<br />

especially designed for the benchtop<br />

market requirements among which are<br />

ruggedness, reliability, high sample<br />

throughput, and ease of use and<br />

maintenance. The commercial ion<br />

trap detector was introduced by<br />

Finnigan in the 1980’s and enhanced<br />

in the 1990’s with the addition of<br />

features such as <strong>MS</strong>/<strong>MS</strong> and negative<br />

ion chemical ionization. Now with<br />

Polaris, a chromatographer can have<br />

the power of simultaneous full scan EI<br />

and <strong>MS</strong>/<strong>MS</strong> available at the click<br />

of a mouse in one versatile, affordable<br />

instrument. The system features:<br />

New TRACE <strong>GC</strong><br />

• Electronic flow/pressure control<br />

• Column characterization for<br />

retention time matching<br />

New Xcalibur Software<br />

• Common platform for ThermoQuest<br />

<strong>GC</strong>/<strong>MS</strong>, LC and LC/<strong>MS</strong> systems<br />

• Merlin Report Writer for<br />

customizable, automated reporting<br />

New High Temperature<br />

Ion Source<br />

• Fully customer-tested for<br />

ruggedness and reliability<br />

• Supports EI, <strong>MS</strong>/<strong>MS</strong>, CI and<br />

probe analysis in all modes<br />

Benzophenone<br />

10 ng test mix<br />

Xcalibur's Merlin Report Writer gives the analyst complete flexibility and simplicity for<br />

fully automated, customizable reports.<br />

1<br />

2<br />

Polaris, with its new ion source, is designed for high throughput of the most difficult sample matrices.<br />

With a source temperature of 250ºC contamination is minimized. Hundreds of samples can be analyzed<br />

between routine source maintenance.<br />

3<br />

4<br />

1 Removable ionization volume<br />

2 Long-life filament<br />

3 High temperature ion source<br />

4 Ion trap mass analyzer


Full scan EI ANALYSIS key applications: • Industrial<br />

• Environmental<br />

• Residue<br />

Industrial Alcohols<br />

100<br />

100<br />

50<br />

0<br />

0<br />

s s<br />

TIC<br />

1.8 2.0 2.2 2.4 2.6 2.8 3.0 3.2 3.4 3.6 3.8 4.0 4.2 4.4 4.6 4.8 5.0 5.2<br />

Time (min)<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

Full Scan<br />

EI/<strong>MS</strong><br />

41.1<br />

43.1<br />

39.1 45.1<br />

55.1<br />

59.0<br />

73.0<br />

Full scan analysis gives the analyst complete confidence, with NIST library identification<br />

and superior quantitation.<br />

3.43<br />

3.52<br />

3.66<br />

40 50 60 70 80 90 100 110 120 130 140 150<br />

m/z<br />

40 50<br />

55 58<br />

57<br />

50 53 60<br />

60<br />

3.77<br />

69.1 74.1 85.1<br />

84.1 87.1 101.1<br />

Industrial raw materials such as alcohols and ketones can be analyzed without the presence of<br />

ion-molecule reactions which typically cause misidentification by all other ion traps.<br />

Validated compound identification<br />

NIST library<br />

confirmation<br />

36 39<br />

4143<br />

42 45<br />

44<br />

59<br />

67 69 71 74<br />

70<br />

73<br />

80<br />

83<br />

85<br />

87<br />

OH<br />

3.91<br />

3.99<br />

101<br />

90 100<br />

2-methyl-3-pentanol<br />

2-methyl-3-pentanol<br />

110<br />

Ion trap detectors are well known for<br />

their superb sensitivity in the full scan<br />

mode. The analyzer acts similar to an<br />

absorption trap in that the target<br />

analyte concentration builds up over<br />

time (milliseconds) until the<br />

population of ions fills the detector to<br />

capacity. The ions are then expelled<br />

into the electron multiplier for<br />

identification and quantitation.<br />

In this way the ion signal is much<br />

stronger than other types of<br />

mass spectrometers.<br />

In addition to the obvious sensitivity<br />

increase, ion traps also have superb<br />

selectivity for removing unwanted<br />

background interferences. Ion trap<br />

detectors have the ability to select<br />

which ion masses are trapped by the<br />

detector and which ions are allowed to<br />

pass through and not be counted. All<br />

of the storage capacity of the detector<br />

is optimized for the target analytes<br />

and not the matrix. This is especially<br />

useful when measuring PCBs or<br />

dioxins in sludge, drugs in biological<br />

fluids, pesticide residues in fruits and<br />

vegetables, and other difficult<br />

applications.


New Finnigan Polaris <strong>GC</strong>/<strong>MS</strong>/<strong>MS</strong> ultimate selectivity for target analytes<br />

Ion trap <strong>GC</strong>/<strong>MS</strong>/<strong>MS</strong> is the most<br />

powerful chromatography technique a<br />

scientist can utilize. <strong>MS</strong>/<strong>MS</strong> is quite<br />

simply this:<br />

A molecule is ionized in the normal<br />

manner and the ions are sent into the<br />

ion trap. The ion trap is tuned to a<br />

single ion mode in which a preselected<br />

(parent) ion is captured and<br />

all other ions are allowed to pass<br />

through the detector. The parent ion<br />

is now energized within the ion trap<br />

to dissociate it into a spectrum of<br />

product ions. These unique product<br />

ions are free from chemical<br />

interference, which allows for extreme<br />

sensitivity and detectivity in<br />

complicated matrices.<br />

High throughput is necessary in<br />

today’s laboratory environment.<br />

Difficult analyses are not exempt<br />

from this requirement. Determination<br />

of pesticides in food, endocrine<br />

disrupters or dioxins in the<br />

environment, drugs in biological fluids<br />

and many others are all applications<br />

that can be performed routinely and<br />

accurately with <strong>GC</strong>/<strong>MS</strong>/<strong>MS</strong>.<br />

Triazolam – Tricyclic Antidepressant<br />

100<br />

0<br />

150<br />

100<br />

203.1<br />

238.1<br />

279.1<br />

316.1<br />

342.0<br />

207.1 239.1 281.1<br />

177.2<br />

240.1 307.1<br />

343.9<br />

176.1<br />

253.1<br />

317.1<br />

163.1<br />

202.1 237.1<br />

267.1<br />

282.2<br />

341.1<br />

344.9<br />

361.1<br />

386.0<br />

0<br />

200 250 300 350 400<br />

m/z<br />

313.1 277.1<br />

100<br />

315.1<br />

100<br />

0<br />

150<br />

313.1<br />

200 250 300 350 400<br />

m/z<br />

16.0 16.5 17.0 17.5 18.0 18.5 19.0 19.5 20.0 20.5 21.0 21.5 22.0<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

(a)<br />

19.92<br />

20.01<br />

20.23<br />

0<br />

150<br />

174.1<br />

242.2<br />

243.2<br />

278.1<br />

201.2<br />

214.2 251.2 286.2<br />

313.1<br />

313.8<br />

200 250 300 350 400<br />

m/z<br />

The process of <strong>MS</strong>/<strong>MS</strong> involves (a) ionization of the compound of interest; (b) isolation of a single ion; and<br />

(c) dissociation of the isolated ion into its product ions. This process increases the selectivity of the analysis by<br />

removing the matrix from the product ions.<br />

Pesticides in Orange Extract – Matrix Removal<br />

Full Scan<br />

EI/<strong>MS</strong><br />

<strong>MS</strong>/<strong>MS</strong> Chromatogram<br />

<strong>MS</strong>/<strong>MS</strong> of Fensulfothion<br />

(parent ion - m/z 293)<br />

156.0<br />

158.1<br />

(b)<br />

Time (min)<br />

21.33<br />

21.35<br />

100 120 140 160 180 200 220 240 260 280<br />

m/ z<br />

Isolation<br />

Ionization Dissociation<br />

The selectivity of <strong>MS</strong>/<strong>MS</strong> analysis is far superior to full scan EI or SIM. This allows the chromatographer to<br />

achieve lower detection limits and unambiguous compound identification in the most difficult matrices.<br />

19.91<br />

217.9<br />

236.0<br />

237.0<br />

(c)<br />

263.9<br />

265.0<br />

265.9<br />

293.0<br />

300


100<br />

0<br />

100<br />

0<br />

Full scan<br />

EI/<strong>MS</strong><br />

6.7 3<br />

7.57<br />

8.03<br />

6 7 8 9 1 0 1 1<br />

Time (min)<br />

9.30<br />

1 0. 05<br />

1 0.46<br />

6.30 7.1 9 7.7 5<br />

8.4 0<br />

8.9 2<br />

9.86<br />

1 0.54 1 1.06<br />

<strong>MS</strong>/<strong>MS</strong><br />

9.1 4<br />

<strong>POLARIS</strong><br />

Collect full scan and <strong>MS</strong>/<strong>MS</strong> data simultaneously<br />

9.30<br />

Mevinphos<br />

Mevinphos<br />

(parent ion - m/z 192)<br />

1 0. 06<br />

9 .58 1 0.39<br />

1 1.05<br />

8 0 1 0 0 1 2 0 1 4 0 1 6 0 1 8 0 2 0 0<br />

Simultaneous full scan and <strong>MS</strong>/<strong>MS</strong> allows accurate quantitative and qualitative analysis of target compounds<br />

and unknown compounds.<br />

10 0<br />

0<br />

100<br />

0<br />

Full scan<br />

EI/<strong>MS</strong><br />

109.1<br />

127.0<br />

m / z<br />

1 6 4 .1<br />

1 9 2.1<br />

78.9 160.1 19 2.8<br />

85. 1 99.0<br />

110.1<br />

149. 1<br />

164.8<br />

194.1<br />

<strong>MS</strong>/<strong>MS</strong><br />

10 2.1<br />

109.1<br />

11 3. 0<br />

127.0<br />

13 5 .1<br />

14 9 .1<br />

1 5 9.9<br />

1 6 4.0<br />

1 6 4.8<br />

key applications:<br />

• Arson<br />

• Pesticide residue<br />

• Sports testing<br />

<strong>GC</strong>/<strong>MS</strong>/<strong>MS</strong> is a target analysis<br />

technique, so you must know what<br />

you are looking for in the sample.<br />

However, full scan EI/<strong>MS</strong> analysis<br />

allows the chromatographer to<br />

measure any compound that might be<br />

present in the sample provided that<br />

the concentration is sufficient and the<br />

matrix is not too intense in that part<br />

of the chromatogram. As you can well<br />

imagine a combination of full scan and<br />

<strong>MS</strong>/<strong>MS</strong> would be very powerful. The<br />

full scan chromatogram can be used to<br />

identify and quantitate compounds<br />

that are not on the target analyte list,<br />

while the <strong>MS</strong>/<strong>MS</strong> chromatogram<br />

provides very accurate low level<br />

quantitation for the selected analytes.<br />

Our new Xcalibur software gives the<br />

analyst the ability to collect full scan<br />

and <strong>MS</strong>/<strong>MS</strong> data simultaneously. How<br />

is this possible? Polaris combines its<br />

rapid scan speed with the powerful<br />

Xcalibur software which collects and<br />

separates the data appropriately.<br />

Quantitative and qualitative analysis is<br />

both accurate and reliable. This<br />

reduces analysis time, enhances data<br />

quality and maximizes productivity.


Chemical IONIZATION key applications: • Explosives<br />

• MW determination<br />

• Toxicology<br />

Chemical Ionization has always been<br />

an important feature of mass<br />

spectrometry. A significant percent of<br />

the spectra in the standard library<br />

database do not have a molecular ion<br />

present. Clearly this means there is a<br />

strong probability that many of the<br />

compounds tested for in routine or<br />

research laboratories will not show a<br />

molecular ion in the spectrum. By<br />

providing molecular weight<br />

information, positive ion chemical<br />

ionization (PICI) naturally becomes<br />

important in compound identification.<br />

Traditional M+1, M+29, and M+41<br />

adduct ions with methane reagent gas<br />

are invaluable in determining the<br />

molecular weight of a compound.<br />

Negative ion chemical ionization<br />

(NICI) is a very selective and sensitive<br />

tool for determining compounds that<br />

are electronegative such as PCBs,<br />

dioxins, chlorinated pesticides, and<br />

derivatized drugs. Only those<br />

compounds that are electronegative<br />

will respond to any extent and<br />

produce quantities of negative ions.<br />

This makes NICI very selective when<br />

confronted with a difficult matrix.<br />

In combination with <strong>MS</strong>/<strong>MS</strong>, highly<br />

halogenated compounds can be<br />

accurately measured at femtogram<br />

levels with consistent library matching<br />

in the most challenging matrices.<br />

PICI Mode – Analgesic/Narcotics<br />

100<br />

9.44<br />

0<br />

8.0 8.2 8.4 8.6 8.8 9.0 9.2 9.4 9.6 9.8 10.0 10.2 10.4 10.6 10.8 11.0<br />

Time (min)<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

100<br />

174.1<br />

202.1<br />

172.1 218.1<br />

220.1<br />

150 160 170 180 190 200 210 220 230 240 250 260 270 280 290 300<br />

m/z<br />

0<br />

8.2 8.4 8.6 8.8 9.0 9.2<br />

Time (min)<br />

9.4 9.6 9.8 10.0 10.2<br />

100<br />

80<br />

60<br />

40<br />

20<br />

0<br />

Methane CI<br />

Positive ion chemical ionization, complete with confirmatory adduct ions, is a powerful complementary<br />

tool for toxicological analysis.<br />

NICI Mode – Explosives<br />

Negative CI<br />

9.10<br />

9.02<br />

197.0<br />

The selectivity and sensitivity of negative ion (electron capture) chemical ionization is useful for testing<br />

compounds such as explosives, derivatized drugs, dioxins, and PCBs.<br />

210.0<br />

181.0 211.0<br />

167.0 198.0<br />

137.1 209.0<br />

Meperidine - MW 247<br />

(Demerol)<br />

232.0<br />

246.0<br />

248.0<br />

Trinitrotoluene - MW 227<br />

(TNT)<br />

249.0<br />

276.0<br />

M+41<br />

288.2<br />

120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 280 290 300<br />

m/z<br />

226.8<br />

M+1<br />

M+29<br />

CH 3<br />

0 2 N NO 2<br />

NO 2


Direct Probe ANALYSIS key applications: • Research<br />

• Chemical synthesis<br />

• Natural products<br />

Direct Insertion – Antibiotics<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 />

98.2<br />

116.1<br />

123.2<br />

132.1<br />

158.2<br />

174.1<br />

(M) Erythromycin - MW 733<br />

176.1<br />

365.1<br />

383.1<br />

179.1 557.3 648.3<br />

715.3<br />

221.1 307.2 334.2<br />

490.2<br />

522.2 660.3<br />

239.1 289.2 384.1<br />

411.0 464.3 574.3<br />

495.2 602.3<br />

644.4 661.4 716.4<br />

100 150 200 250 300 350 400 450 500 550 600 650 700 750<br />

m/z<br />

Direct probe analysis combined with <strong>MS</strong>/<strong>MS</strong> can quickly determine the presence of a drug, carcinogen,<br />

endocrine disrupter, or priority pollutant in any matrix without the need for sample preparation or<br />

chromatography.<br />

HO<br />

HO<br />

O<br />

472.2<br />

OH<br />

O O<br />

O<br />

N<br />

OH<br />

558.3<br />

Interchangeable probes for non-<strong>GC</strong> applications<br />

O<br />

O<br />

O<br />

OH<br />

O<br />

Direct Exposure – DEP<br />

Direct Insertion – DIP<br />

Direct probe mass spectrometry is an<br />

alternative sampling technique when<br />

the sample material cannot pass<br />

through a capillary <strong>GC</strong> column.<br />

Some examples include sugars, long<br />

chain amino acids, small proteins and<br />

triglycerides. The spectrum of these<br />

compounds can be obtained by placing<br />

the sample onto a probe tip and<br />

inserting the probe directly into the<br />

mass spectrometer.<br />

The direct sample probe can also be<br />

used as a screening tool when<br />

combined with <strong>MS</strong>/<strong>MS</strong>. A complex<br />

sample such as soil, blood, hair or<br />

other biological material can be placed<br />

directly onto the probe. By using<br />

<strong>MS</strong>/<strong>MS</strong>, the presence or absence of<br />

particular target analytes can be<br />

determined. This efficient technique<br />

eliminates tedious sample preparation<br />

and gas chromatographic analysis,<br />

saving cycle time and money.<br />

Finnigan Polaris offers the<br />

chromatographer a wealth<br />

of fast, powerful and reliable<br />

solutions. Come join us in<br />

the company of scientists –<br />

you’ll see the difference<br />

in your data.


System configuration<br />

Polaris includes the TRACE <strong>GC</strong>* with Digital<br />

Pressure and Flow Control (DPFC); analyzer with EI<br />

source and full scan EI, SIM, <strong>MS</strong>/<strong>MS</strong> and <strong>MS</strong> n modes.<br />

PC data system † has a minimum of Pentium II 400<br />

MHz processor, 64 MB SDRAM, 6.4 GB hard drive,<br />

32X CD-ROM, 17” SVGA monitor and Xcalibur<br />

software for full instrument control, data acquisition and<br />

fully automated data processing and customized report<br />

generation.<br />

Options/Accessories<br />

Autosampling<br />

AS2000 liquid* or HS2000 headspace* autosampler.<br />

Other sampling accessories available.<br />

Sample introduction<br />

Direct Sample Probe system with interchangeable direct<br />

insertion or direct exposure probes.<br />

TRACE <strong>GC</strong><br />

Second detector installed including FID, ECD or NPD.<br />

Programmable Temperature Vaporizer (PTV) for split,<br />

cold split, splitless and large volume injection (LVI) with<br />

digital pressure and flow control (DPFC). Cold<br />

on-column injector with large volume injection and<br />

software optimization.<br />

Polaris <strong>MS</strong> detector<br />

Open-split or jet separator interface for Megabore<br />

columns.<br />

Vacuum interlock system.<br />

Turbomolecular pump (230 L/sec).<br />

External Ionization CI mode for PICI and<br />

NICI (ECD-<strong>MS</strong>) applications.<br />

Xcalibur Data System<br />

NIST library<br />

Wiley library<br />

Pfleger-Mauer-Weber library<br />

Finnigan pesticide library<br />

*Comprehensive literature is available or visit our website at www.tmqaustin.com<br />

†Call for current data system specifications.<br />

©1999 ThermoQuest Corporation. Printed in USA. ThermoQuest is a public subsidiary of<br />

Thermo Instrument Systems Inc., a Thermo Electron company.<br />

In the company of scientists – Lockheed<br />

Martin Astronautics, Canada Dept. of<br />

HS2000<br />

Agriculture, Nestle, Headspace New York State Dept. of<br />

Autosampler<br />

Health, US Environmental Protection Agency,<br />

(optional)<br />

Euratom, Federal Bureau of Investigation,<br />

Australia Aeronautical & maritime Residue<br />

Laboratory, Princess Wales Hospital,<br />

University of North Carolina-Charlotte,<br />

Eawag, North Dakota Dept. of Health, N.<br />

Tyneside General Hospital, American Water<br />

Works Service, Dow Agrosciences, Purdue<br />

University, United States Dept. of<br />

Agriculture, Agriculture & Agri-food Canada,<br />

Biochrome GMBH, UCB Chemical Corporation,<br />

Southern Illinois University, Iatsa, NASA<br />

Research Center, CRN Instituto, Clearwater<br />

Fine Foods, Lab Agroalimentario, Kodak,<br />

Centro De Investigation En Alimentacion Y<br />

Desarrollo A.C., IBM, Texas Parks & Wildlife,<br />

University of California, Montana St.<br />

Department of Justice, Alberta Justice<br />

Department, Monsanto, Rockwell Science<br />

Center, Arkansas Crime Lab, University of<br />

Ottawa, Saitama Turbomolecular Food Health, MD Anderson<br />

Cancer<br />

Pump (optional)<br />

Center, Azienda, US Customs,<br />

Commonwealth of Virginia, Dolunay, San<br />

Antonio Water System, University of Almeria,<br />

Charles Stark Draper Lab, Battelle Chemical<br />

and Environmental Technologies, Surface<br />

Science Laboratories, HMT Technology,<br />

University of Colorado Health Sciences<br />

Center, University of Texas, Club Cosmetics,<br />

Polizei Hamburg, Gesellschaft, US Army Dental<br />

Research, Cisesma, Toyoonaka City, Wakayama<br />

Agriculture, University of Dundee, Bracco,<br />

Filtrona, Giotti, GIFU Research Center,<br />

Carbogen, Zeneca Central Toxicology, Denmarks<br />

Tekniske, INTERNATIONAL Lafon, OFFICES University of Stockholm,<br />

AUSTRALIA Tel. (61) 2 9898 9000, Fax. (61) 2 9898 9800<br />

Himeji Institute of Technology, Saga<br />

AUSTRIA Tel. (43) 1 333 50340, Fax. (43) 1 333 503426<br />

Environmental, BELGIUM Tel. (32) 8250670, Medizinische, Fax. (32) 8 8250692 L’oreal, Enscr,<br />

CANADA Tel. (905) 712 2258, Fax. (905) 712 4203 Canada only Tel. (1 800) 721 4260<br />

University FRANCE Tel. (33) 1 of 69 18 88 10, York, Fax. (33) 1 69 29 Suntory 93 82 LTD., Sports<br />

Authority GERMANY Tel. India, (49) 6103 4080, Fax. Unicam, (49) 6103 408222 Beijing University,<br />

ITALY Tel. (39) 02 95059 226, Fax. (39) 02 95059 256<br />

Laborexport JAPAN Tel. (81) 3 3372 KFT, 3001, Fax. American (81) 3 3372 7051 Cyanamid, Kobe Port<br />

NETHERLANDS Tel. (31) 76 587 8722, Fax. (31) 76 571 4171<br />

Quarantine, Hijaz Electronic, Napp<br />

PEOPLE’S REPUBLIC OF CHINA Tel. (86) 10 6221 0839, Fax. (86) 10 6221 0847<br />

Pharmaceuticals, SPAIN Tel. (34) 9 1657 4930, Fax. (34) University 9 1657 4937 of Chicago,<br />

SWEDEN Tel. (46) 8 6800 101, Fax. (46) 8 6800 315<br />

General State Lab Greece, Shandong Medicines<br />

UNITED KINGDOM Tel. (44) 1 442 233555, Fax. (44) 1 442 233667<br />

and UNITED Health, STATES Tel. (01) 800 Pharmacia 876 6711, (01) 512 251 1555, & Fax. (01) Upjohn, 512 251 1597 King<br />

ADDITIONAL REPRESENTATIVES WORLDWIDE<br />

Ultrasonic, Lilly Dev. Centre, Ausimont,<br />

Werthenstein Chemical,<br />

A/POLR/99.07<br />

Equistar Printed Chemicals<br />

on recycled paper<br />

www.thermoquest.com

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!