I. INTERNATIONAL TECHNOLOGY TRANSFER SYMPOSIUM, Samsun, Türkiye, 6 - 08 Mayıs 2024, ss.74, (Özet Bildiri)
This study examines the efficiency of catalytic pyrolysis in converting polypropylene
into biodiesel fuel using a hydrothermal reactor model TGYF-C. The Co-Mo/
AC-ZSM-5 catalyst was manufactured and a series of experiments were performed.
The conversion method yielded favorable results using the following analytical
techniques: bet, xrd, sem, edx, ft-ir,tga, icp, and nanoparticle size analyzer. The
combined action of Co-Mo and ZSM-5 zeolite, together with the large surface
area of activated carbon, enables effective decomposition and improvement of
pyrolysis vapors obtained from microalgae. Furthermore, the catalyst exhibits
exceptional stability after several reaction cycles. The experiments were divided
into two parts without using microalgae and with using microalgae (Chlorella
vulgaris). The experiments were conducted within a temperature range of 200°C
to 325°C (interval 25°C) with residence times of 30, 45, 60, 75, and 90 minutes. The
impact of temperature and residence time on the quantity and quality of biodiesel
was analyzed. The results indicate that higher temperatures and longer residence
times generally result in increased biodiesel production. But it is important to
optimize these factors to maintain the quality of the product. Samples of biodiesel
were tested using devices Grabner Instruments, GC-VUV and Oxygen Bomb
Calorimeter. Excellent results were obtained, such as higher heating value reach
to 40 kj/kg .This study offers valuable insights into the ideal operating conditions
for effectively converting polypropylene into biodiesel, thereby contributing to
sustainable waste management and the production of renewable fuel.