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Home / Applications / Separation of Aromatics in Diesel Fuel by Supercritical Fluid Chromatography (ASTM D5186)

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Separation of Aromatics in Diesel Fuel by Supercritical Fluid Chromatography (ASTM D5186)

By Heather Haffner

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January 5, 2024

Introduction

Many components including aliphatic hydrocarbons and aromatic hydrocarbons such as paraffins and olefins are contained in petroleum fuel such as gasoline, gas oil, etc. Analyzing these components is very important because these components greatly affect the efficiency of the fuel and the amount of environmental pollutant which is discharged from engine after burning. Separation analysis methods such as High Performance Liquid Chromatography (HPLC), Gas Chromatography (GC) or Supercritical Fluid Chromatography (SFC) are widely used for analyzing petroleum fuel.

Among those methods, Supercritical Fluid Chromatography has been used to derive an ASTM (The American Society for Testing and Material) method because the components in petroleum fuel can be separated with high resolution and can be analyzed in a short time with high stability.

This time polycyclic aromatic components in diesel fuel were analyzed using Supercritical Fluid Chromatography system in accordance with ASTM D5186 as reported below.

Jasco PU-2080-CO2
Jasco PU-2080-CO2

Experimental

Keywords

820020SRE

Results

Overlapped chromatograms (n = 10) of standard mixture are shown in figure 1, and the result of retention time repeatability is shown as in Table 1. The repeatability obtained was less than 0.2% and the resolution of Hexadecane and Toluene was 11.2, and the resolution of Tetralin and Naphthalene, 4.9.

Figure 1 Chromatogram of the Standard Mixture
1.Hexadecane, 2.Toluene, 3.Tetralin, 4.Naphthalene

Table 1 Retention Time Repeatability of Standard Mixture (n=10)

The chromatogram of commercially available gas oil is shown as in figure 2. The area percent of each component was: non-aromatics: 71.8%, and aromatics: 28.2%.

Figure 2 Chromatogram of Gas Oil
This document has been prepared based on information available at the time of publication and is subject to revision without notice. Although the contents are checked with the utmost care, we do not guarantee their accuracy or completeness. JASCO Corporation assumes no responsibility or liability for any loss or damage incurred as a result of the use of any information contained in this document. Copyright and other intellectual property rights in this document remain the property of JASCO Corporation. Please do not attempt to copy, modify, redistribute, or sell etc. in whole or in part without prior written permission.

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About the Author

JASCO Application Note

Separation of Aromatics in Diesel Fuel by Supercritical Fluid Chromatography (ASTM D5186)

Introduction

Many components including aliphatic hydrocarbons and aromatic hydrocarbons such as paraffins and olefins are contained in petroleum fuel such as gasoline, gas oil, etc. Analyzing these components is very important because these components greatly affect the efficiency of the fuel and the amount of environmental pollutant which is discharged from engine after burning. Separation analysis methods such as High Performance Liquid Chromatography (HPLC), Gas Chromatography (GC) or Supercritical Fluid Chromatography (SFC) are widely used for analyzing petroleum fuel.

Among those methods, Supercritical Fluid Chromatography has been used to derive an ASTM (The American Society for Testing and Material) method because the components in petroleum fuel can be separated with high resolution and can be analyzed in a short time with high stability.

This time polycyclic aromatic components in diesel fuel were analyzed using Supercritical Fluid Chromatography system in accordance with ASTM D5186 as reported below.

Jasco PU-2080-CO2
Jasco PU-2080-CO2

Experimental

Results

Overlapped chromatograms (n = 10) of standard mixture are shown in figure 1, and the result of retention time repeatability is shown as in Table 1. The repeatability obtained was less than 0.2% and the resolution of Hexadecane and Toluene was 11.2, and the resolution of Tetralin and Naphthalene, 4.9.

Figure 1 Chromatogram of the Standard Mixture
1.Hexadecane, 2.Toluene, 3.Tetralin, 4.Naphthalene

Table 1 Retention Time Repeatability of Standard Mixture (n=10)

The chromatogram of commercially available gas oil is shown as in figure 2. The area percent of each component was: non-aromatics: 71.8%, and aromatics: 28.2%.

Figure 2 Chromatogram of Gas Oil

Keywords

820020SRE

This document has been prepared based on information available at the time of publication and is subject to revision without notice. Although the contents are checked with the utmost care, we do not guarantee their accuracy or completeness. JASCO Corporation assumes no responsibility or liability for any loss or damage incurred as a result of the use of any information contained in this document. Copyright and other intellectual property rights in this document remain the property of JASCO Corporation. Please do not attempt to copy, modify, redistribute, or sell etc. in whole or in part without prior written permission.
28600 Mary’s Court, Easton, MD 21601 USA • (800) 333-5272 • Fax: (410) 822-7526 • jascoinc.com/applications

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