Investigation of emission control efficiency with gasoline vapor recovery units

Main Article Content

Ece Kalay
Hasan Sarıoğlu
İskender Özkul

Abstract

Increasing environmental regulations and the widespread use of gasoline vapor recovery systems have become a current issue. The development of technology and equipment for the gasoline vapor recovery industry is also growing rapidly and the demands on the relevant technical standards are increasing. Depending on the domestic and international development of the gasoline vapor recovery technology and standard, the purpose of this study will be to examine the VRU systems developed to control the emissions of gasoline-sourced volatile organic compounds. Analysis of the relevant terminology will be carried out through a literature review.

Article Details

How to Cite
Kalay, E. ., Sarıoğlu, H. ., & Özkul, İskender . (2022). Investigation of emission control efficiency with gasoline vapor recovery units. Advanced Engineering Science, 2, 9–14. Retrieved from https://publish.mersin.edu.tr/index.php/ades/article/view/174
Section
Articles

References

Elsamani, M. A., & Elwadie, M. E. (2015). Gasoline Vapour Recovery. University of Khartoum.

Hansen, M. (1996). Hydrocarbon vapor emission reduction by recovery. Paper presented at the Danish Days in Ukraine conference.

Mulder, T. J. H. E. (2007). VOC recovery systems. 12(6), 37-40.

Jo, W.-K., & Song, K.-B. J. S. O. T. T. E. (2001). Exposure to volatile organic compounds for individuals with occupations associated with potential exposure to motor vehicle exhaust and/or gasoline vapor emissions. 269(1-3), 25-37.

Jeffery, K. (1998). Bulk Liquids vapour control: IIR Publications Limited.

Hadley, P., Devos, F., Esty, W., Gommel, P., Ising, U., Lilie, R., Williams, L. J. S. C. (1978). Hydrocarbon emissions from gasoline storage and distribution systems. 4.

Chang, D., Min, J., Moon, K., Park, Y. K., Jeon, J. K., & Ihm, S. K. (2004). Robust numerical simulation of pressure swing adsorption process with strong adsorbate CO2. Chemical Engineering Science, 59(13), 2715-2725.

Sabareesh, R. K., Gobinath, N., Sajith, V., Das, S., & Sobhan, C. B. (2012). Application of TiO2 nanoparticles as a lubricant-additive for vapor compression refrigeration systems–An experimental investigation. International Journal of Refrigeration, 35(7), 1989-1996.

Kalinowski, P., Hwang, Y., Radermacher, R., Al Hashimi, S., & Rodgers, P. (2009). Application of waste heat powered absorption refrigeration system to the LNG recovery process. International journal of refrigeration, 32(4), 687-694.

Junbo, D., Weiqiu, H., Qiuyun, B. J. C. E. O. O., & Gas. (2008). Optimization Research of Absorption Process for Vapor Recovery System

Baker, R. W. (2006). Membranes for vapor/gas separation. Membrane Technology and Research, Inc.: Menlo Park, CA, USA.

Shi, L., & Huang, W. (2014). Sensitivity analysis and optimization for gasoline vapor condensation recovery. Process Safety and Environmental Protection, 92(6), 807-814.

Liu, Y., Ritter, J. A., & Kaul, B. K. (2000). Simulation of gasoline vapor recovery by pressure swing adsorption. Separation and Purification Technology, 20(1), 111-127.