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Analysis of Organic solvent

Applications | 2023 | ShimadzuInstrumentation
GC, Consumables, GC columns
Industries
Pharma & Biopharma
Manufacturer
Shimadzu

Summary

Significance of the Topic


Gas chromatography with flame ionization detection is a fundamental technique for monitoring volatile organic solvents in environmental and industrial settings. Rapid and reliable analysis of these compounds supports regulatory compliance, ensures product quality, and protects human health and ecosystems.

Objectives and Study Overview


This application note demonstrates the separation and quantification of twelve common organic solvents using a Shimadzu GC–FID system equipped with an SH-624 column. The goal is to achieve baseline separation within a short run time for efficient environmental measurement of water and air pollutants.

Used Instrumentation


  • Gas chromatograph: Shimadzu GC with FID detector
  • Capillary column: SH-624, 30 m x 0.53 mm I.D., 3 um film thickness, P/N 221-75865-30
  • Injection: Split mode, ratio 1:20, injector temperature 250 °C
  • Carrier gas: Helium at constant linear velocity of 67.1 cm/sec (33.2 kPa at 40 °C)
  • FID temperature: 250 °C

Methodology


The column oven was held at 40 °C for 3 minutes, then ramped at 20 °C/min to 200 °C. A sample containing the target solvents was injected under split conditions. Separation was achieved through volatility differences and column polarity, producing sharp, well-resolved peaks.

Main Results and Discussion


The method resolved twelve solvents in under seven minutes with excellent peak shape and resolution. The identified compounds in elution order are:
  1. Methanol
  2. Ethanol
  3. Acetonitrile
  4. Acetone
  5. Dichloromethane
  6. Methyl ethyl ketone
  7. Ethyl acetate
  8. Tetrahydrofuran
  9. Benzene
  10. Carbon tetrachloride
  11. Heptane
  12. Toluene

Retention times were reproducible, demonstrating robustness for routine analyses. The SH-624 column provided adequate polarity for polar and nonpolar solvent separation within a single run.

Practical Benefits and Applications


  • High throughput screening of water and air samples for solvent contamination
  • Quality control in chemical manufacturing and pharmaceutical production
  • Environmental monitoring in laboratories and field stations

Future Trends and Potential Applications


Integration with automated sampling systems and mass spectrometric detectors could enhance sensitivity and compound identification. Miniaturized and portable GC–FID systems may enable on-site real-time monitoring. Green chromatography approaches, including reduced carrier gas flow and shorter columns, will improve sustainability.

Conclusion


The presented GC–FID method using the SH-624 column offers a rapid, reliable, and reproducible approach for analyzing a broad range of organic solvents. Its simplicity and speed make it suitable for diverse applications in environmental and industrial laboratories.

Reference


Shimadzu Corporation, Application Note ERAS-1000-0493, First Edition September 2023

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