| نویسندگان | میلاد کریمی انجیرکی,مریم غیاثیان آرانی,Elmuez A. Dawi,Forat H. Alsultany,مهدی شبانی نوش آبادی,مسعود صلواتی |
| نشریه | Alexandria Engineering Journal |
| شماره صفحات | 1 |
| شماره مجلد | 152 |
| ضریب تاثیر (IF) | ثبت نشده |
| نوع مقاله | Full Paper |
| تاریخ انتشار | 2026-08-25 |
| رتبه نشریه | علمی - پژوهشی |
| نوع نشریه | الکترونیکی |
| کشور محل چاپ | ایران |
| نمایه نشریه | JCR ,SCOPUS |
چکیده مقاله
Organic contaminants can be effectively removed from water solutions using nano-photocatalysts that are based
on graphitic carbon nitride (CN) and PrCoO
3
(PC). The electrical construction of graphitic carbon nitride has an
important influence on its photocatalytic action. PC/CN nanocomposites were engineered to promote efficient
separation of photogenerated electron–hole pairs and accelerate charge transfer, thereby enhancing photo
catalytic performance. Fusible green synthesis was used to create the nanostructured PC with Aloe-vera extract as
a fuel and a capping agent using the sol-gel method. Effect of operational parameters such as amount of Aloe-vera
extract, calcination temperature and percentage of CN was examined on crystal phase construction, grain size,
morphology and uniformity. The photo-degradation of erythrosine and methylene blue was examined in the
presence of PrCoO
3
/g-C
3
N
4
(PC/CN) nanocomposites under visible light source by optimizing dye concentration
and catalyst dosage. The pure PC nanoparticles after visible irradiation during 120 min, exhibit 66% erythrosine
degradation efficiency. As a result, 0.06 g of the 15% CN based nanocomposite exhibits a high photocatalytic
efficiency of about 92% in a 10 ppm erythrosine solution after 120 min of visible irradiation. The magnetic
behavior and surface area of the obtained samples are promising for using them as recyclable and reusable
photocatalysts. A favorable optical property, reduced charge carrier recombination, and effective charge transfer
mechanisms are credited with the improved photocatalytic efficacy. For effective energy conversion-related
applications, our work offers a cost-effective and environmentally friendly way to design nano-photocatalysts.