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Product Information
Phase Detail
Zebron ZB-1701 GC Columns
Zebron ZB1701 GC columns provide alternate selectivity to phenyl phases with similar polarity

Zebron ZB-1701 GC Columns

Alternate Selectivity for Mid-Polarity Analyses

  • Fast run and re equilibration times for enhanced sample throughput and productivity
  • Provides alternate selectivity to phenyl phases with similar polarity
  • Good peak shape for active analytes

Want an even more rugged alternative for pesticide analysis? See ZB-MutliResidue-1
Testing Endrin and DDT? See ZB-1701

Recommended Use
Alcohols, Amines, Aromatic Hydrocarbons, Drugs, Esters, PAHs, PCBs, Pharmaceutical Intermediates, Phenols, Solvents, Steroids, TMS Sugars, Tranquilizers



Recommended Use
Alcohols, Amines, Drugs, Esters, PAHs, PCBs, Pharmaceutical Intermediates, Phenols, Solvents, Steroids, TMS Sugars, Tranquilizers

Applications

Showing 1-6 of 6 results
EPA 8270 Internal Standard Mix on ZB-1701P
European PAH Mix # 1 on ZB-1701P
Nitrogen and Phosphorous Pesticides (EPA 507) Mix # 1 on ZB-1701P
Nitrogen and Phosphorous Pesticides (EPA 507) Mix # 5 on ZB-1701P
Methylated Chlorinated Acids (EPA 515.2) Mix # 1 on ZB-1701P
Chlorinated Pesticides (EPA 508) Mix # 2 on ZB-1701P

Upgrade to Zebron from any 14 % cyanopropylphenyl / 86 % dimethylpolysiloxane phase:

Agilent® Restek® SGE® Supelco® OV®
DB®-1701 Rtx®-1701 BP10 SPB®-1701 OV-1701
CP-Sil 19 CB Rtx-VMS   Equity®-1701  

Good Peak Shape for Active Analytes

Aromatic Amines by GC-MS

Column:
Zebron ZB-1701
Dimension:
30 meter x 0.25 mm x 0.25 µm
Part No.:
Injection:
Split 15:1 @ 220 °C, 1 µL
Oven Program:
60 °C for 1 min to 110 °C @ 30 °C/min to
135 °C @ 9 °C/min to 260 °C @ 30 °C/min
for 2 min
Detector:
MSD @ 180 °C
Samples:
Analytes are at 1.58 mg/mL each
1. Piperidine
2. 2-Methylpiperidine
3. Aniline
4. Benzylamine
5. α-Phenylethylamine
6. N-Methylaniline
7. m-Toluidine
8. o-Toluidine
9. N,N-Dimethylaniline
10. β-Phenylethylamine
11. N-Ethylaniline
12. 2,4-Dimethylaniline
13. N,N-Diethylaniline
14. Dibenzylamine

Orthogonal Selectivity for Separation

Oxygenated Compounds and Hydrocarbons in Alternative Fuels by Two Dimensional Gas Chromatography using Zebron ZB-1701 and ZB-1 GC Columns

Column 1:
Zebron ZB-1701
Phase:
14 % Cyanopropylphenyl 86 %
Dimethylpolysiloxane
Dimension:
30 meter x 0.25 mm x 0.25 μm
Part No.:
Column 2:
Zebron ZB-1
Phase:
100 % Dimethylpolysiloxane
Dimension:
1.5 meter x 0.1 mm x 0.10 μm

Part No.:
Sample:
Coal-derived Oil
Injection:
Split 100:1 @ 250 °C, 0.5 μL
Recommended Linear:
Zebron PLUS Straight Z-Liner™
Part No.:
Instrument:
Leco Pegasus 3, Agilent 6890N
Carrier Gas:
Helium @ 1.5 mL/min (Constant Flow Mode)
Oven Program:
50 °C for 0.3 min, to 300 °C at 2 °C/min
Modulation:
Dual Jet Cryogenic, Liquid Nitrogen
Modulation Period:
7 seconds
Detection:
Flame Ionization (FID) @ 370 °C
Hydrogen:
30 mL/min
Air Flow:
400 mL/min

Two-dimension contour plot of a coal-derived liquid using GC×GC. The configuration

The results are P for Paraffins, N for Naphthenes, 1A for Mono-aromatics, 2A for Di-Aromatics, 3A for Tri-aromatics, and O for Oxygenated compounds

Three-dimension plot of a coal-derived middle distillate using GC×GC. ZB-1701 x ZB-1

The results are P for Paraffins, N for Naphthenes, 1A for Mono-aromatics, 2A for Di-Aromatics, 3A for Tri-aromatics, and O for Oxygenated compounds

Conclusion

The analysis results obtained using Zebron ZB-1701 and ZB-1 GC columns together enabled the GC×GC-FID system to unravel molecular structures of oxygenated compounds in a coal-derived middle distillate. It also shows that the oxygenated structures mainly consist of phenolic compounds, and this characterization is crucial to help convert coal-derived oils into alternative fuels.

This study showed that compared to conventional configurations, a reversed configuration involving a highly polar column in the first dimension and a non-polar one in the second enables the separation of oxygenates and hydrocarbons in one single run. In fact, the 2D contour plots obtained under these conditions exhibit a good resolution and a high space occupation. Nevertheless, in the future there is still an opportunity to separate the nitrogenates from the oxygenates for improved quantification. Further study is needed utilizing either sample preparation or online fractionation in a multi-technical analytical approach with multi-dimensional gas chromatography.

Acknowledgement: This study was run at IFPEN, and we thank them for their collaboration on this project. Phenomenex is not affiliated with IFPEN.