Boosting catalytic performance in ZSM-5 (50) catalyst cracking: microwave and Taguchi method with nitrogen activation

Microwave power has a more significant effect on cracking with less energy consumption. The microwave power and the catalysis increase the racking rate and the conversion at lower temperatures. Accordingly, the generated hot spots in the catalyst offer a suitable condition for cracking (high rate and low temperature). The microwave technique was used to conduct the cracking of heavy naphtha. A set of experiments was done with microwave power (750–1250 W), preheating temperatures (150–250 ˚C), and space velocities (2–6 l/hr) with and without nitrogen injection. The nitrogen injection enhanced the conversion for all situations. The best result has a conversion of 47.37% with nitrogen injection at microwave power of 1250 W, a flow rate of 4 l/hr, and a preheating temperature of 250˚C. Generally, it was noted that the flow rate did not affect the conversion. Compared to conventional techniques, the microwave power increased both the reaction and conversion rates, allowing for work at lower temperatures that traditional methods cannot achieve. This study investigated how microwaves with catalysts affect residence time, energy savings, and conversion. The microwave technique experiment could be scaled up to become a mass production unit in any refinery.

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Publication Details

Journal
Iraqi Journal of Chemical and Petroleum Engineering
Published
2025-03-30
DOI
https://doi.org/10.31699/ijcpe.2025.1.1
Primary Topic
Catalysis and Hydrodesulfurization Studies
Type
article
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article

Boosting catalytic performance in ZSM-5 (50) catalyst cracking: microwave and Taguchi method with nitrogen activation

Muataz M. Sulaiman, Muhannad K. Zabar, Hasan F. Makki
Iraqi Journal of Chemical and Petroleum Engineering
Catalysis and Hydrodesulfurization Studies
article

Boosting catalytic performance in ZSM-5 (50) catalyst cracking: microwave and Taguchi method with nitrogen activation

Muataz M. Sulaiman, Muhannad K. Zabar, Hasan F. Makki
article en

Abstract

Microwave power has a more significant effect on cracking with less energy consumption. The microwave power and the catalysis increase the racking rate and the conversion at lower temperatures. Accordingly, the generated hot spots in the catalyst offer a suitable condition for cracking (high rate and low temperature). The microwave technique was used to conduct the cracking of heavy naphtha. A set of experiments was done with microwave power (750–1250 W), preheating temperatures (150–250 ˚C), and space velocities (2–6 l/hr) with and without nitrogen injection. The nitrogen injection enhanced the conversion for all situations. The best result has a conversion of 47.37% with nitrogen injection at microwave power of 1250 W, a flow rate of 4 l/hr, and a preheating temperature of 250˚C. Generally, it was noted that the flow rate did not affect the conversion. Compared to conventional techniques, the microwave power increased both the reaction and conversion rates, allowing for work at lower temperatures that traditional methods cannot achieve. This study investigated how microwaves with catalysts affect residence time, energy savings, and conversion. The microwave technique experiment could be scaled up to become a mass production unit in any refinery.

Iraqi Journal of Chemical and Petroleum EngineeringVol. 26(1)
University of Baghdad (IQ), Curtin University (AU), Iraqi University (IQ)
Openalex Percentile: Top 94%
Catalysis and Hydrodesulfurization Studies
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