[1] M. Iranmanesh et al., “CFD modeling and experimental validation of a solar cabinet dryer with evacuated tube collectors,” Renewable Energy, 145, 1192–1213, 2020.
[2] M. S. Jahromi et al., “Energy and exergy analysis of unglazed transpired solar collector combined with phase change material,” Journal of Energy Storage, 60, 106693, 2023.
[3] H. Barghi Jahromi et al., “Review of nanostructures based on MOFs in hydrogen absorption and storage,” Donyaye Nano, 19(71), 45–65, 2023.
[4] M. S. Barghi Jahromi et al., “Thermo-economic evaluation of a solar dryer,” Journal of Applied and Computational Sciences in Mechanics, 32(1), 39–58, 2021.
[5] H. S. Akhijahani et al., “Solar drying of Rhubarb: Experimental and numerical investigation,” Journal of Energy Storage, 60, 106451, 2023.
[6] M. S. Barghi Jahromi et al., “Phase change process of paraffin wax embedded with open-cell copper foam,” Journal of Renewable Energy and Environment, 10(4), 59–65, 2023.
[7] M. S. Jahromi et al., “Numerical simulation of indirect cabinet solar dryer,” Karafan Quarterly Scientific Journal, 19(1), 523–544, 2022.
[8] M. Saleh Barghi Jahromi, “Exergy Analysis of Solar Dryer Systems,” IntechOpen, 2023.
[9] C. Jeong et al., “Metal-organic frameworks for the adsorptive removal of hazardous environmental contaminants: A review,” Separation and Purification Technology, 305, 122416, 2023.
[10] P. Zang et al., “Dual functional materials for integrated CO2 capture and conversion: A review,” Journal of Environmental Chemical Engineering, 11, 111047, 2023.
[11] A. Shasavari et al., “Environmental impacts and social cost of energy sources,” Journal of Renewable Energy and Environment, 11(1), 12–27, 2024.
[12] M. M. T. Ansari, “Passive partial shading mitigation techniques for PV arrays,” Journal of Renewable Energy and Environment, 11(1), 135–156, 2024.
[13] J. Di et al., “Bismuth oxyhalide layered materials for energy and environmental applications,” Nano Energy, 41, 172–192, 2017.
[14] X. Ma et al., “Metal-organic framework films for environmental pollution control,” Accounts of Chemical Research, 52(5), 1461–1470, 2019.
[15] T. Rasheed et al., “Metal-organic frameworks as emerging adsorbents for water remediation,” Chemosphere, 259, 127369, 2020.
[16] I. Ahmed et al., “Metal-organic frameworks in adsorptive removal of organic pollutants from water, fuel, and air,” Chemistry – An Asian Journal, 16(3), 185–196, 2021.
[17] Y. Zhang et al., “Nanofibrous metal-organic framework filters for air pollution control,” Journal of the American Chemical Society, 138(18), 5785–5788, 2016.
[18] R. Singh et al., “Heavy metals and living systems: An overview,” Indian Journal of Pharmacology, 43(3), 246–253, 2011.
[19] T. W. Lane, F. M. Morel, “A biological function for cadmium in marine diatoms,” PNAS, 97(9), 4627–4631, 2000.
[20] L. Velarde et al., “Adsorption of heavy metals on natural zeolites: A review,” Chemosphere, 328, 138508, 2023.
[21] G. de Paula Arrifano et al., “Neurotoxicity of arsenic, lead, and mercury: Molecular mechanisms,” Neurochemical Research, 48(4), 1047–1065, 2023.
[22] T. J. Sorg et al., “Arsenic species in US drinking water wells,” Water Research, 48, 156–169, 2014.
[23] H. J. Sun et al., “Arsenic and selenium: A review of interaction and toxicity,” Environment International, 69, 148–158, 2014.
[24] S. Muzaffar et al., “Cellular and molecular toxicity of arsenic and warfare arsenicals,” Cell Biology and Toxicology, 39(1), 85–110, 2023.
[25] R. Singh et al., “Arsenic contamination, consequences and remediation techniques: A review,” Ecotoxicology and Environmental Safety, 112, 247–270, 2015.
[26] Y. N. Wu et al., “Amino acid-templated synthesis of zeolitic imidazolate framework ZIF-8 for efficient arsenate removal,” Nanoscale, 6(2), 1105–1112, 2014.
[27] Z. Q. Li et al., “Facile synthesis of water-stable metal-organic framework MOF-808 for arsenic removal,” Materials Letters, 160, 412–414, 2015.
[28] H. Furukawa et al., “Water adsorption in porous metal-organic frameworks,” Journal of the American Chemical Society, 136(11), 4369–4381, 2014.
[29] S. Gopi et al., “CoxFe3-xO4 nanoparticles derived from CoFe-MOF for efficient removal of As(III),” Journal of Environmental Chemical Engineering, 11(3), 110106, 2023.
[30] P. Rodríguez-Viso et al., “Dietary exposure to mercury and its impact on intestinal integrity,” Toxicology, 488, 153580, 2023.
[31] A. D. Singh et al., “Biogeochemical dynamics and remediation strategies of mercury: A review,” Chemosphere, 319, 137917, 2023.
[32] X. Zhu et al., “Elemental mercury removal by MOF-derived porous Cr2O3 materials,” Chemical Engineering Journal, 467, 143402, 2023.
[33] M. C. Goci et al., “Chitosan-based nanocomposites for mercury remediation from aqueous solutions,” Polymers, 15(3), 482, 2023.
[34] S. Mauchauffée, E. Meux, “Use of sodium decanoate for selective precipitation of heavy metals,” Chemosphere, 69(5), 763–768, 2007.
[35] Y. Wang et al., “Metal-organic framework membranes for lithium extraction from high Mg/Li ratio brine,” Advanced Membranes, 5, 100156, 2025.
[36] A. Dąbrowski et al., “Selective removal of heavy metal ions from waters and industrial wastewaters by ion-exchange methods,” Chemosphere, 56(2), 91–106, 2004.
[37] X. Gao et al., “Thiol-decorated defective metal-organic framework for efficient capture of Hg(II),” Chemosphere, 317, 137891, 2023.
[38] X. Yan et al., “Advanced metal-organic frameworks for mercury capture: A comprehensive review,” Coordination Chemistry Reviews, 443, 214034, 2021.
[39] B. Zeng et al., “Titanium-based MOF for synergistic removal of Pb(II) and Hg(II) from wastewater,” Materials Science and Engineering: B, 290, 116337, 2023.
[40] J. Gao et al., “MOF/polypropylene hybrid membrane for efficient mercury removal,” Nanomaterials, 11(10), 2488, 2021.
[41] D. Bůžek et al., “Stability and degradation of UiO-66 metal-organic framework in biological buffer systems,” Inorganic Chemistry Frontiers, 8(3), 720–734, 2021.
[42] A. M. Ernyasih et al., “Health risk assessment of environmental lead exposure: A systematic review,” Journal of Pharmaceutical Negative Results, 14(1), 68–76, 2023.
[43] M. N. Mahamood et al., “Combined application of biochar and nanoscale zero-valent iron mitigates lead toxicity in wheat,” Environmental Pollution, 319, 120979, 2023.
[44] C. Niu et al., “Protective effects of plant polyphenols against lead-induced toxicity,” Phytomedicine, 112, 154789, 2023.
[45] F. Ahmadijokani et al., “Covalent organic framework-metal organic framework hybrids for environmental remediation,” Advanced Functional Materials, 34(43), 2305527, 2024.
[46] J. Zhang et al., “Thiol-functionalized metal-organic framework for highly efficient removal of Pb(II) and Cd(II),” Journal of Molecular Liquids, 221, 43–50, 2016.
[47] J. A. Greathouse, M. D. Allendorf, “The interaction of water with MOF-5: A molecular dynamics study,” Journal of the American Chemical Society, 128(33), 10678–10679, 2006.
[48] L. Kan et al., “Multifunctionalized metal-organic framework for rapid and ultra-high removal of Pb(II),” Separation and Purification Technology, 325, 124758, 2023.
[49] Z. Aksu, “Application of biosorption for the removal of organic pollutants: A review,” Process Biochemistry, 40(3–4), 997–1026, 2005.
[50] O. M. Alharbi et al., “Health and environmental effects of persistent organic pollutants: A review,” Journal of Molecular Liquids, 263, 442–453, 2018.
[51] A. M. Awad et al., “Adsorption of organic pollutants by natural and modified clays: A review,” Separation and Purification Technology, 228, 115719, 2019.
[52] N. B. Singh et al., “Water purification by using adsorbents: A review,” Environmental Technology & Innovation, 11, 187–240, 2018.
[53] N. Chatterjee et al., “Comparative developmental toxicity of benzene, toluene, and formaldehyde in zebrafish,” Environmental Toxicology and Pharmacology, 97, 104031, 2023.
[54] Q. Meng et al., “Sustainable benzene production from catalytic cleavage of lignin,” Nature Communications, 12(1), 4534, 2021.
[55] P. Mozzoni et al., “Benzene exposure and MicroRNAs expression: in vitro, in vivo and human findings,” International Journal of Environmental Research and Public Health, 20(3), 1920, 2023.
[56] N. A. Yusoff et al., “Linking benzene, in utero carcinogenicity and fetal hematopoietic stem cell niches: a mechanistic review,” International Journal of Molecular Sciences, 24(7), 6335, 2023.
[57] J. Mehralipour et al., “Synthesis of BiOI@NH2-MIL125(Ti)/Zeolite composite for photocatalytic removal of benzene from polluted air stream,” Journal of Environmental Health Science and Engineering, 20(2), 937–952, 2022.
[58] A. H. Khoshakhlagh et al., “Performance assessment of the MOF adsorbent MIL-101 for removal of gaseous benzene and toluene,” Environmental Science and Pollution Research, 30(33), 80791–80806, 2023.
[59] J. Hermannsdörfer, R. Kempe, “Selective palladium-loaded MIL-101 catalysts for organic reactions,” Chemistry – A European Journal, 17(29), 8071–8077, 2011.
[60] Q. Ma et al., “Computational design of MOFs for sustainable energy and environmental applications,” Materials Science and Engineering: B, 311, 117765, 2025.
[61] I. Haydari et al., “Green synthesis of reduced graphene oxide for column adsorption of phenol from olive mill wastewater,” Process Safety and Environmental Protection, 170, 1079–1091, 2023.
[62] B. N. Bhadra, I. Ahmed, S. H. Jhung, “Remarkable adsorbent for phenol removal from fuel: functionalized MOF,” Fuel, 174, 438–445, 2016.
[63] K. Xie et al., “Study of adsorptive removal of phenol by MOF-5,” Desalination and Water Treatment, 54(3), 654–659, 2015.
[64] H. A. Rangkooy et al., “Photocatalytic Removal of Toluene Vapour using immobilized TiO2 nanoparticles on natural zeolite,” Iranian Journal of Public Health, 52(1), 184–193, 2023.
[65] H. Sun et al., “MnOx-CeO2 catalyst derived from MOFs for toluene catalytic oxidation,” Catalysis Today, 355, 580–586, 2020.
[66] L. K. Lowry, “The biological exposure index: its use in assessing chemical exposure in industry,” Toxicology, 47(1–2), 55–69, 1987.
[67] J. Jin et al., “Defect dominated hierarchical Ti-MOFs for enhanced photocatalytic toluene removal,” Advanced Functional Materials, 31(32), 2102511, 2021.
[68] C. H. Hendon et al., “Engineering the optical response of the titanium-MIL-125 MOF through ligand functionalization,” Journal of the American Chemical Society, 135(30), 10942–10945, 2013.
[69] F. Barbosa Jr et al., “Polycyclic aromatic hydrocarbons (PAHs) toxicity: a review of mechanisms,” Journal of Toxicology and Environmental Health, Part B, 26(1), 28–65, 2023.
[70] J. J. Nam et al., “Distribution of polycyclic aromatic hydrocarbons in agricultural soils,” Chemosphere, 50(10), 1281–1289, 2003.
[71] S. Barathi et al., “Biodegradation of high molecular weight PAHs by bacterial consortia,” Chemosphere, 311, 137021, 2023.
[72] A. B. Patel et al., “Bacterial degradation of polycyclic aromatic hydrocarbons: a review,” Frontiers in Microbiology, 11, 562813, 2020.
[73] A. O. Adeniji et al., “Analytical methods and environmental occurrence of PAHs: a review,” Archives of Environmental Contamination and Toxicology, 76, 657–669, 2019.
[74] X. Y. Lu et al., “Bioremediation of PAH-contaminated soil: a review,” Applied Microbiology and Biotechnology, 89, 1357–1371, 2011.
[75] P. Huang et al., “Hollow Co-MOF-74 nanofiber membranes for high-performance PAH removal,” Chemical Engineering Journal, 449, 137759, 2022.
[76] K. Vellingiri et al., “Metal-organic frameworks for the adsorption of gaseous toluene,” Chemical Engineering Journal, 307, 1116–1126, 2017.
[77] M. Tanaka et al., “Immunotoxicological effects of styrene exposure,” Immunopharmacology and Immunotoxicology, 45(2), 153–162, 2023.
[78] Y. Murata et al., “In vivo mutation analysis of styrene using MutaMouse,” Genes and Environment, 45(1), 12, 2023.
[79] A. Mooney et al., “Bacterial degradation of styrene and related compounds,” Applied Microbiology and Biotechnology, 72, 1–10, 2006.
[80] M. Candia-Lomelí et al., “Deep eutectic solvents for styrene absorption and separation,” Journal of Hazardous Materials, 441, 129835, 2023.
[81] H. Wan et al., “ZIF-67-derived carbon materials for efficient removal of polystyrene microplastics,” Toxics, 10(2), 70, 2022.
[82] S. Modak et al., “Porous metal-organic frameworks for nanoplastics capture,” ACS Applied Engineering Materials, 1(2), 744–755, 2023.
[83] Z. U. Zango et al., “Recent advances in porous adsorbent materials for PAHs and phenols removal from wastewater,” Water, 12(10), 2921, 2020.
[84] L. Xu et al., “Covalent organic framework grown on MOF as fiber coating for solid-phase microextraction of PAHs in tea,” Microchimica Acta, 190(9), 344, 2023.
[85] K. G. Liu et al., “Role of metal-organic framework composites in the removal of inorganic toxic contaminants,” Journal of Cleaner Production, 385, 136709, 2023.
[86] N. B. Singh et al., “Water purification by using adsorbents: a review,” Environmental Technology & Innovation, 11, 187–240, 2018.
[87] Z. Chen et al., “Application of COFs and MOFs nanomaterials in organic/inorganic pollutants removal,” Carbon Research, 2(1), 8, 2023.
[88] J. Darabdhhara, M. Ahmaruzzaman, “Recent developments in MOF and MOF based composites as potential adsorbents,” Chemosphere, 304, 135261, 2022.
[89] A. Bhatnagar, M. Sillanpää, “A review of emerging adsorbents for nitrate removal from water,” Chemical Engineering Journal, 168(2), 493–504, 2011.
[90] C. P. Bondonno et al., “Nitrate: the Dr. Jekyll and Mr. Hyde of human health?,” Trends in Food Science & Technology, 135, 14–27, 2023.
[91] A. Hmelak Gorenjak, A. Cencić, “Nitrate in vegetables and their impact on human health: a review,” Acta Alimentaria, 42(2), 158–172, 2013.
[92] M. Qasemi et al., “Characteristics, water quality index and human health risk from nitrate and fluoride,” Journal of Food Composition and Analysis, 115, 104870, 2023.
[93] M. R. Mehmamoust et al., “Nitrate adsorption from aqueous solution by MOF-5,” Iranian Journal of Science and Technology, Transactions A: Science, 43, 443–449, 2019.
[94] H. Mohajer et al., “Quaternary ammonium-functionalized UiO-66-Sal for efficient nitrate removal,” Applied Surface Science, 615, 156391, 2023.
[95] S. Kratz et al., “Trace elements in rock phosphates and phosphate fertilizers,” Science of the Total Environment, 542, 1013–1019, 2016.
[96] E. Kim et al., “Aquatic toxicity assessment of phosphate compounds,” Environmental Health and Toxicology, 28, e2013002, 2013.
[97] E. Moumen et al., “Aluminum-fumarate based MOF for effective removal of phosphate from wastewater,” Process Safety and Environmental Protection, 160, 502–512, 2022.
[98] Q. Xie et al., “Effective adsorption and removal of phosphate by Fe-based MOFs of MIL-101,” Scientific Reports, 7(1), 3316, 2017.
[99] D. R. Addis et al., “Halogen gas exposure: toxic effects on the parturient,” Toxicology Mechanisms and Methods, 31(4), 272–287, 2021.
[100] H. Ottappilakkil et al., “Fluoride induced neurobehavioral impairments and toxicities,” Biological Trace Element Research, 201(3), 1214–1236, 2023.
[101] S. Bhattacharya, “Medicinal plants and natural products against fluoride toxicity,” Journal of Environmental Pathology, Toxicology and Oncology, 42(1), 35–52, 2023.
[102] A. A. Oyagbemi et al., “Cardioprotective and renoprotective effects of melatonin and vitamin E on fluoride-induced hypertension,” Comparative Clinical Pathology, 33(1), 33–45, 2024.
[103] F. Ahmadijokani et al., “Simultaneous detection and removal of fluoride from water using smart MOF-based adsorbents,” Coordination Chemistry Reviews, 445, 214037, 2021.
[104] F. Ke et al., “Fumarate-based MOFs for selective removal of fluoride from brick tea infusion,” Scientific Reports, 8(1), 939, 2018.
[105] F. I. Pambudi et al., “First-principle study of MOF-801 and its interaction with hydrogen,” Materials Today Communications, 35, 105967, 2023.
[106] D. Wu et al., “Review of chloride ion detection technology in water environment,” Applied Sciences, 11(23), 11137, 2021.
[107] J. B. DeCoste et al., “A UiO-66 analogue with uncoordinated carboxylic acids for the broad-spectrum removal of toxic chemicals,” New Journal of Chemistry, 39(4), 2396–2399, 2015.
[108] J. Wei et al., “Ground-level gaseous pollutants (NO2, SO2, and CO) in China: historical trends and spatial patterns,” Atmospheric Chemistry and Physics, 23(2), 1511–1532, 2023.
[109] Y. Z. Liu et al., “Removal of gaseous pollutants by using 3DOM-based catalysts: a review,” Chemosphere, 262, 127886, 2021.
[110] K. Masroor et al., “Exposure to ambient gaseous air pollutants and adult lung function: a systematic review,” Environmental Research, 204, 112000, 2022.
[111] K. Rajput et al., “CaS/CaSe heterobilayer as a potential NO2 gas sensor,” Applied Surface Science, 528, 146996, 2020.
[112] S. A. Siddique et al., “Toxic gas sensing via aza-macrocycles: a DFT study,” Computational and Theoretical Chemistry, 1209, 113606, 2022.
[113] M. Sun et al., “Reversible NO2 adsorption on Cu-MOF-derived adsorbents,” Separation and Purification Technology, 314, 123563, 2023.
[114] G. W. Peterson et al., “Extraordinary NO2 removal by UiO-66-NH2,” Angewandte Chemie International Edition, 55(21), 6235–6238, 2016.
[115] S. Shang et al., “Multivariate porphyrin MOFs with Ni/Co dual sites for NO2 capture and NO retention,” Separation and Purification Technology, 320, 124080, 2023.
[116] Y. S. Najjar, “Gaseous pollutants formation and harmful effects on human health and environment,” Innovative Energy Policies, 1(1), 1000103, 2011.
[117] M. A. Khan et al., “Electrochemical sensors for NO2, SO2, and H2S detection,” Sensors, 19(4), 905, 2019.
[118] R. Hadjiaghaie Vafaie, G. Hosseinzadeh, “Photoacoustic spectroscopy of CO2, SO2, and NO,” Sustainability, 15(12), 9225, 2023.
[119] Y. Yun et al., “Synergistic toxic effects of PM10 and SO2 on human lung cells,” Journal of Environmental Sciences, 31, 146–153, 2015.
[120] J. Kaminski, “Technologies and costs of SO2-emissions reduction for the energy sector,” Applied Energy, 75(3–4), 165–172, 2003.
[121] Y. B. Ren et al., “An ultra-stable Zr(IV)-MOF for highly efficient capture of SO2 from SO2/CO2 and SO2/CH4 mixtures,” Chemical Engineering Journal, 431, 134057, 2022.
[122] Z. Zhang et al., “Post modification of Oxo-clusters in robust Zr-MOF for durable SO2 capture from flue gas,” Separation and Purification Technology, 276, 119349, 2021.
[123] S. P. Singh, P. Singh, “Effect of CO2 concentration on algal growth: a review,” Renewable and Sustainable Energy Reviews, 38, 172–179, 2014.
[124] M. Kabir et al., “Climate change due to increasing CO2 and its impacts,” Reviews on Environmental Health, 38(1), 137–150, 2023.
[125] P. M. Bhatt et al., “Isoreticular rare earth fcu-MOFs for selective removal of H2S from CO2-containing gases,” Chemical Engineering Journal, 324, 392–396, 2017.
[126] C. N. Li et al., “Green synthesis of MOF-801 (Zr/Ce/Hf) for CO2/N2 and CO2/CH4 separation,” Inorganic Chemistry, 62(20), 7853–7860, 2023.
[127] M. S. Jahromi et al., “Solar cabinet dryers with PCM energy storage,” Journal of Energy Storage, 51, 104434, 2022.
[128] M. S. Jahromi et al., “ANN/EPR/LCA for solar air ventilator with PCM,” Applied Thermal Engineering, 126117, 2025.
[129] M. S. Jahromi et al., “Thermoeconomic solar drying of Jerusalem artichoke,” Journal of Energy Storage, 52, 104688, 2022.
[130] M. S. Jahromi et al., “Solar air ventilator with PCM: numerical, techno-economic and environmental analysis,” Journal of Energy Storage, 62, 106961, 2023.
[131] M. S. Jahromi et al., “Parabolic dish collector combined with nanofluid and PCM for solar dryer,” Journal of Energy Storage, 98, 112969, 2024.
[132] M. S. Jahromi et al., “Flat solar porous collector for medicinal plant drying,” Energy, 314, 137653, 2025.
[133] P. Salami et al., “Classification of fruit solar dryers / PCM review,” Solar Energy, 297, 113570, 2025.
[134] K. R. Patil, “Performance of diethyl ether and ethanol-blended biodiesel in CI engines,” Journal of Renewable Energy and Environment, 10(2), 1–8, 2023.
[135] Y. Song et al., “Ethanol from electro/photocatalytic CO2 reduction,” Catalysts, 10(11), 1287, 2020.
[136] S. Yoshimaru et al., “Support effect of MOFs on ethanol production via acetic acid hydrogenation,” ACS Applied Materials & Interfaces, 13(17), 19992–20001, 2021.
[137] B. An et al., “Cooperative copper centres in a MOF for selective CO2 conversion to ethanol,” Nature Catalysis, 2(8), 709–717, 2019.
[138] F. Mahmoudi, M. Shahraki, “Inclusion complexes of V-type nerve agents (VE, VG, VM, VR, VX) with β-cyclodextrin,” Journal of Biomolecular Structure and Dynamics, 42(5), 2681–2697, 2024.
[139] M. Shahraki et al., “Microplastics in atmospheric dust of Sistan,” Journal of Environmental Health Science and Engineering, 20(2), 931–936, 2022.
[140] S. M. Habibi Khorassani et al., “Cyclodextrin host–guest magnetic nanoparticles (methotrexate/tamoxifen) apoptosis & kinetic modeling,” BioNanoScience, 11(3), 667–677, 2021.
[141] F. Mahmoudi, M. Shahraki, “Sarin decontamination by heptakis(2,3,6-tri-O-methyl)-β-cyclodextrin,” Molecular Systems Design & Engineering, 6(8), 643–653, 2021.
[142] F. Ghodsi et al., “Kinetic modeling of mitoxantrone release from hyaluronic MNP,” Chemical Methodologies, 5(1), 30–34, 2021.
[143] F. Mahmoudi, M. Shahraki, “Sarin–β-cyclodextrin host–guest theory,” Journal of the Taiwan Institute of Chemical Engineers, 116, 178–187, 2020.
[144] Y. Shahbakhsh et al., “KI as nucleophilic catalyst for ionic vinyl compounds,” ChemistrySelect, 5(28), 8806–8813, 2020.
[145] S. M. Habibi-Khorassani et al., “Kinetics and mechanism of ylides and phosphonate ester formation (review),” Mini-Reviews in Organic Chemistry, 16(1), 59–77, 2019.
[146] M. S. Mohtaram et al., “MOF-derived nanomaterials for renewable energy & sustainability,” Coordination Chemistry Reviews, 546, 217083, 2026.
[147] M. Darijani et al., “β-carotene epoxide formation mechanism and kinetics,” Food Chemistry, 389, 133082, 2022.
[148] U. Jamil et al., “Cu/Ca-MOF catalyst for biodiesel production from waste cooking oil,” Energy Conversion and Management, 215, 112934, 2020.
[149] Q. He et al., “Industrial preparation of MOFs: strategies and outlook,” Materials Today Sustainability, 17, 100104, 2022.
[150] D. Chakraborty et al., “Large-scale production of metal-organic frameworks,” Advanced Functional Materials, 34(43), 2309089, 2024.