[1] Sun, L., Li, K., Huang, J., Jiang, Z., Huang, Y., Liu, H., Wei, G., Ge, F., Ye, X., & Zhang, Y. (2019). Facile synthesis of tri (octyl-decyl) amine-modified biomass carbonaceous aerogel for rapid adsorption and removal of iodine ions. Chemical Engineering Research and Design, 144, 228–236.
[2] Akhlaghian, F., & Moradi, S. (2022). Removal of chromium (VI) from synthetic wastewater by using cellulose adsorbent. Iranian, Chemical Engineering Journal, 21(120), 35-46, In Persian.
[3] Zhang, D., Lu, S. G., Song, X. Q., Zhang, J. F., Huo, Z. M., & Zhao, H. T. (2018). Synergistic and simultaneous biosorption of phenanthrene and iodine from aqueous solutions by soil indigenous bacterial biomass as a low-cost biosorbent. RSC Advances, 8(69), 39274–39283.
[4] Sadeghi, M., Eghbali, H. (2022). Investigation of properties and applications of chitosan-vanillin hydrogels: a review. Iranian, Chemical Engineering Journal, 21(120), 47-59, In Persian.
[5] Nikpour, S., Ansari-Asl, Z., & Sedaghat, T. (2022). Fabrication and characterization of polystyrene/Fe-MOF composite beads for iodine uptake. Inorganic Chemistry Communications, 136, 109141.
[6] Mohan, A., Al-Sayah, M. H., Ahmed, A., & El-Kadri, O. M. (2022). Triazine-based porous organic polymers for reversible capture of iodine and utilization in antibacterial application. Scientific Reports, 12(1), 2638.
[7] Wu, Y., Xie, Y., Zhong, F., Gao, J., & Yao, J. (2020). Fabrication of bimetallic Hofmann-type metal-organic Frameworks@ Cellulose aerogels for efficient iodine capture. Microporous and Mesoporous Materials, 306, 110386.
[8] Li, L., Chen, R., Li, Y., Xiong, T., & Li, Y. (2020). Novel cotton fiber-covalent organic framework hybrid monolith for reversible capture of iodine. Cellulose, 27, 5879–5892.
[9] Qu, G., Han, Y., Qi, J., Xing, X., Hou, M., Sun, Y., Wang, X., & Sun, G. (2021). Rapid iodine capture from radioactive wastewater by green and low-cost biomass waste derived porous silicon–carbon composite. RSC Advances, 11(9), 5268–5275.
[10] Shim, H. E., Yang, J. E., Jeong, S.-W., Lee, C. H., Song, L., Mushtaq, S., Choi, D. S., Choi, Y. J., & Jeon, J. (2018). Silver nanomaterial-immobilized desalination systems for efficient removal of radioactive iodine species in water. Nanomaterials, 8(9), 660.
[11] Park, J. E., Shim, H. E., Mushtaq, S., Choi, Y. J., & Jeon, J. (2020). A functionalized nanocomposite adsorbent for the sequential removal of radioactive iodine and cobalt ions in aqueous media. Korean Journal of Chemical Engineering, 37, 2209–2215.
[12] Mushtaq, S., Yun, S.-J., Yang, J. E., Jeong, S.-W., Shim, H. E., Choi, M. H., Park, S. H., Choi, Y. J., & Jeon, J. (2017). Efficient and selective removal of radioactive iodine anions using engineered nanocomposite membranes. Environmental Science: Nano, 4(11), 2157–2163.
[13] Zhu, H., Wang, B., Zhu, W., Duan, T., He, G., Wei, Y., Sun, D., & Zhou, J. (2022). Interface assembly of specific recognition gripper wrapping on activated collagen fiber for synergistic capture effect of iodine. Colloids and Surfaces B: Biointerfaces, 210, 112216.
[14] Yu, M., Guo, Y., Wang, X., Zhu, H., Li, W., & Zhou, J. (2022). Lignin-based electrospinning nanofibers for reversible iodine capture and potential applications. International Journal of Biological Macromolecules, 208, 782–793.
[15] Tang, W., Duan, J., Zhang, Y., & Luo, X. (2022). Cross-linked sponge fungal hyphae: an efficient and environmentally friendly sorbent addition of iodine. Biomass Conversion and Biorefinery, 1–9.
[16] Sun, H., Yang, B., & Li, A. (2019). Biomass derived porous carbon for efficient capture of carbon dioxide, organic contaminants and volatile iodine with exceptionally high uptake. Chemical Engineering Journal, 372, 65–73.
[17] Lawal, A. A., Hassan, M. A., Zakaria, M. R., Yusoff, M. Z. M., Norrrahim, M. N. F., Mokhtar, M. N., & Shirai, Y. (2021). Effect of oil palm biomass cellulosic content on nanopore structure and adsorption capacity of biochar. Bioresource Technology, 332, 125070.
[18] Ma, Z., Han, Y., Qi, J., Qu, Z., & Wang, X. (2021). High iodine adsorption by lignin-based hierarchically porous flower-like carbon nanosheets. Industrial Crops and Products, 169, 113649.
[19] Xu, Z., Zhang, Q., Lin, P., Gao, Y., Wen, Y., Li, K., & Li, L. (2022). Oxygen-rich microporous carbons with exceptionally high adsorption of iodine. Materials Chemistry and Physics, 285, 126193.
[20] Albatrni, H., Qiblawey, H., & Al-Marri, M. J. (2022). Walnut shell based adsorbents: A review study on preparation, mechanism, and application. Journal of Water Process Engineering, 45, 102527.
[21] Gonsalvesh, L., Marinov, S. P., Gryglewicz, G., Carleer, R., & Yperman, J. (2016). Preparation, characterization and application of polystyrene based activated carbons for Ni (II) removal from aqueous solution. Fuel Processing Technology, 149, 75–85.
[22] Machado, N. C. F., de Jesus, L. A. M., Pinto, P. S., de Paula, F. G. F., Alves, M. O., Mendes, K. H. A., Mambrini, R. V, Barrreda, D., Rocha, V., & Santamaría, R. (2021). Waste-polystyrene foams-derived magnetic carbon material for adsorption and redox supercapacitor applications. Journal of Cleaner Production, 313, 127903.
[23] Asnin, L. D., Davankov, V. A., & Pastukhov, A. V. (2008). The adsorption of chlorobenzene on a carbon adsorbent obtained by the pyrolysis of hypercrosslinked polystyrene. Russian Journal of Physical Chemistry A, Focus on Chemistry, 82(13), 2313–2317.
[24] Asnin, L. D., Davankov, V. A., Pastukhov, A. V, & Shchurov, Y. A. (2009). Vapor-phase adsorption of a mixture of benzene and chlorobenzene on the carbon adsorbent obtained by pyrolysis of hypercrosslinked polystyrene. Russian Chemical Bulletin, 58, 2217–2221.
[25] Asnin, L. D., & Davankov, V. A. (2011). Adsorption of hexane, cyclohexane, and benzene on microporous carbon obtained by pyrolysis of hypercrosslinked polystyrene. Russian Journal of Physical Chemistry A, 85, 1629–1634.
[26] Wen, Y., Liu, J., Song, J., Gong, J., Chen, H., & Tang, T. (2015). Conversion of polystyrene into porous carbon sheets and hollow carbon shells over different magnesium oxide templates for efficient removal of methylene blue. Rsc Advances, 5(127), 105047–105056.
[27] Shariful, M. I., Sharif, S. Bin, Lee, J. J. L., Habiba, U., Ang, B. C., & Amalina, M. A. (2017). Adsorption of divalent heavy metal ion by mesoporous-high surface area chitosan/poly (ethylene oxide) nanofibrous membrane. Carbohydrate Polymers, 157, 57–64.
[28] Khorasani, A. C., & Satvati, P. R. (2023). Reusable cellulose-based biosorbents for efficient iodine adsorption by economic microcrystalline cellulose production from walnut shell. International Journal of Biological Macromolecules, 128432.
[29] Deniz, F. (2022). Green purification of heavy metal pollution from aquatic environment by biorefinery waste biomass of Nigella sativa L.: A novel and effective treatment agent. Environmental Technology & Innovation, 25, 102118.
[30] Alver, E., Metin, A. Ü., & Brouers, F. (2020). Methylene blue adsorption on magnetic alginate/rice husk bio-composite. International Journal of Biological Macromolecules, 154, 104–113.
[31] Abdullah, I., Ahmad, N., Hussain, M., Ahmed, A., Ahmed, U., & Park, Y.-K. (2022). Conversion of biomass blends (walnut shell and pearl millet) for the production of solid biofuel via torrefaction under different conditions. Chemosphere, 295, 133894.
[32] Zubair, M., Mu’azu, N. D., Jarrah, N., Blaisi, N. I., Aziz, H. A., & A. Al-Harthi, M. (2020). Adsorption behavior and mechanism of methylene blue, crystal violet, eriochrome black T, and methyl orange dyes onto biochar-derived date palm fronds waste produced at different pyrolysis conditions. Water, Air, & Soil Pollution, 231, 1–19.
[33] Asadullah, M., Zhang, S., & Li, C.-Z. (2010). Evaluation of structural features of chars from pyrolysis of biomass of different particle sizes. Fuel Processing Technology, 91(8), 877–881.
[34] Vyas, A., Chellappa, T., & Goldfarb, J. L. (2017). Porosity development and reactivity changes of coal–biomass blends during co-pyrolysis at various temperatures. Journal of Analytical and Applied Pyrolysis, 124, 79–88.
[35] Yu, D., Hui, H., Ding, G., Dong, N., & Li, S. (2021). Enhancement of aromatics production from catalytic co-pyrolysis of walnut shell and LDPE via a two-step approach. Journal of Analytical and Applied Pyrolysis, 157(April), 105216. https://doi.org/10.1016/j.jaap.2021.105216
[36] Diao, R., Sun, M., Huang, Y., & Zhu, X. (2021). Synergistic effect of washing pretreatment and co-pyrolysis on physicochemical property evolution of biochar derived from bio-oil distillation residue and walnut shell. Journal of Analytical and Applied Pyrolysis, 155, 105034.
[37] Khorasani, A. C., & Garousi, A. (2024).Biochar-plastic co-conversion as an economic strategy in energy production and enhanced plastic waste transformation from walnut and polystyrene waste. Journal of Process Safety and Environmental Protection, 188, 1-12.