[1] Ostergaard, P. A., Duic, N., Noorollahi, Y., & Kalogirou, S. (2022). Renewable energy for sustainable development. Renewable energy, 199, 1145-1152.
[2] Falcone, P. M., Hiete, M., & Sapio, A. (2021). Hydrogen economy and sustainable development goals: Review and policy insights. Current opinion in green and sustainable chemistry, 31, 100506.
[3] Razi, F., & Dincer, I. (2020). A critical evaluation of potential routes of solar hydrogen production for sustainable development. Journal of Cleaner Production, 264, 121582.
[4] Vijayarengan, P., Panchangam, S. C., Stephen, A., Bernatsha, G., Murali, G. K., Loka, S. S., & Ravindran, G. (2024). Highly efficient visible light active iron oxide-based photocatalysts for both hydrogen production and dye degradation. Scientific Reports, 14(1), 18299.
[5] Lashgari, M., & Ghanimati, M. (2018). Photocatalytic degradation of H2S aqueous media using sulfide nanostructured solid-solution solar-energy-materials to produce hydrogen fuel. Journal of hazardous materials, 345, 10-17.
[6] Nailwal, B. C., Salvi, J., Chotalia, P., Goswami, N., Muhmood, L., Kar, S., & Adak, A. K. (2024). Enhanced H2S decomposition using membrane reactor. International Journal of Hydrogen Energy, 70, 251-261.
[7] Ghanimati, M., Lashgari, M., Diego-Lopez, A., Bosca, F., & Marin, M. L. (2024). Highly effective CNT-based magnetic pn-junction nanocomposite photocatalyst/solar-energy material for hazmat conversion to hydrogen fuel. Composites Part B: Engineering, 276, 111367.
[8] Zaera, F. (2002). Outstanding mechanistic questions in heterogeneous catalysis. The Journal of Physical Chemistry B, 106(16), 4043-4052.
[9] Bernard, P., Stelmachowski, P., Broś, P., Makowski, W., & Kotarba, A. (2021). Demonstration of the influence of specific surface area on reaction rate in heterogeneous catalysis. Journal of chemical education, 98(3), 935-940.
[10] Ghanimati, M., Lashgari, M., Oulego, P., Giannakis, S, (2025). MWCNT-based environmental nanocomposite photocatalyst and magnetic activity promotion to produce hydrogen fuel using H2S. Journal of Environmental Chemical Engineering, 13, 115636.
[11] Liu, L., Zuo, L., Li, R., Xi, T., Fan, H., Li, B., & Wang, L. (2023). Novel CoMn2O4-ZnIn2S4 hollow heterostructure cage for efficient photocatalytic hydrogen evolution. Applied Surface Science, 635, 157646.
[12] Misra, M., Chowdhury, S. R., & Singh, N. (2020). TiO2@ Au@ CoMn2O4 core–shell nanorods for photo‒electrochemical and photocatalytic activity for decomposition of toxic organic compounds and photo reduction of Cr6+ ion. Journal of Alloys and Compounds, 824, 153861.
[13] Lashgari, M., & Ghanimati, M. (2019). An excellent heterojunction nanocomposite solar-energy material for photocatalytic transformation of hydrogen sulfide pollutant to hydrogen fuel and elemental sulfur: a mechanistic insight. Journal of colloid and interface science, 555, 187-194.
[14] Pinzón, M., Avilés-García, O., De la Osa, A. R., de Lucas-Consuegra, A., Sánchez, P. & Romero, A., (2022). New catalysts based on reduced graphene oxide for hydrogen production from ammonia decomposition. Sustainable Chemistry and Pharmacy, 25, 100615.
[15] Moustafa, H. M., Velisoju, V. K., Mohamed, H. O., Obaid, M., Kolubah, P. D., Yao, X., Ghaffour, N. & Castaño, P., (2023). Co–TiO2 supported on reduced graphene oxide as a highly active and stable photocatalyst for hydrogen generation. Fuel, 338, 127232.
[16] Rahman, M. Z., Maity, P., Mohammed, O. F. & Gascon, J., (2022). Insight into the role of reduced graphene oxide in enhancing photocatalytic hydrogen evolution in disordered carbon nitride. Physical Chemistry Chemical Physics, 24, 11213-11221.
[17] Kangutkar, R. S., Walko, P., K, A., Manjanna, J. & Devi, R. N., (2024). Environment friendly synthesis of reduced graphene oxide from spent lithium-ion battery graphite and its nanocomposite with MoO3 nanorods for photocatalytic hydrogen evolution. Energy & Fuels, 38, 22376–22392.
[18] Ghanimati, M., Lashgari, M., Masaki Takeguchi, M., Montagnaro, F., Balsamo, M., (2025). Highly adsorptive/effective rGO/pn-junction nanocomposite to generate hydrogen fuel using H2S: Rational photocatalyst design and magnetic boosting. International Journal of Hydrogen Energy, 105, 1217-1229.
[19] Han, G. S., Song, Y. H., Jin, Y. U., Lee, J. W., Park, N. G., Kang, B. K., & Jung, H. S. (2015). Reduced graphene oxide/mesoporous TiO2 nanocomposite based perovskite solar cells. ACS applied materials & interfaces, 7(42), 23521-23526.
[20] Jo, J., Lee, S., Gim, J., Song, J., Kim, S., Mathew, V., & Kim, J. (2019). Facile synthesis of reduced graphene oxide by modified Hummer's method as anode material for Li-, Na-and K-ion secondary batteries. Royal Society open science, 6(4), 181978.
[21] Zhang, P., Liu, H., & Li, X. (2021). Plasmon-driven engineering in bimetallic CuCo combined with reduced graphene oxide for photocatalytic overall water splitting. Applied Surface Science, 559, 149865.
[22] Balsamo, M., Cimino, S., De Falco, G., Erto, A., & Lisi, L. (2016). ZnO-CuO supported on activated carbon for H2S removal at room temperature. Chemical Engineering Journal, 304, 399-407.
[23] Lashgari, M., & Ghanimati, M. (2015). A highly efficient nanostructured quinary photocatalyst for hydrogen production. International Journal of Energy Research, 39(4), 516-523.
[24] Wang, Y., Hu, G., Cao, Y., Peng, Z., & Du, K. (2021). One-pot synthesis of pre-reduced graphene oxide for efficient production of high-quality reduced graphene oxide and its lithium storage application. Materials Chemistry and Physics, 265, 124523.
[25] do Nascimento, J. R., D’Oliveira, M. R., Veiga, A. G., Chagas, C. A., & Schmal, M. (2020). Synthesis of reduced graphene oxide as a support for nano copper and palladium/copper catalysts for selective NO reduction by CO. ACS omega, 5(40), 25568-25581.
[26] Kumar, A., Sadanandhan, A. M., & Jain, S. L. (2019). Silver doped reduced graphene oxide as a promising plasmonic photocatalyst for oxidative coupling of benzylamines under visible light irradiation. New Journal of Chemistry, 43(23), 9116-9122.
[27] Saranya, P. E., & Selladurai, S. (2018). Efficient electrochemical performance of ZnMn2O4 nanoparticles with rGO nanosheets for electrodes in supercapacitor applications. Journal of Materials Science: Materials in Electronics, 29, 3326-3339.
[28] Zhou, Y., Bao, Q., Tang, L. A. L., Zhong, Y., & Loh, K. P. (2009). Hydrothermal dehydration for the “green” reduction of exfoliated graphene oxide to graphene and demonstration of tunable optical limiting properties. Chemistry of Materials, 21(13), 2950-2956.
[29] Akiya, N., & Savage, P. E. (2002). Roles of water for chemical reactions in high-temperature water. Chemical reviews, 102(8), 2725-2750.
[30] Lashgari, M., & Ghanimati, M. (2019). A new efficient eco-friendly quaternary solid-solution nanoenergy material for photocatalytic hydrogen fuel production from H2S aqueous feed. Chemical Engineering Journal, 358, 153-159.
[31] Zhang, L., Yang, C., Xie, Z., & Wang, X. (2018). Cobalt manganese spinel as an effective cocatalyst for photocatalytic water oxidation. Applied Catalysis B: Environmental, 224, 886-894.