Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+

Investigation in radioactive contaminant removal from aqueous solutions has been considered essential upon unexpected nuclear accidents. In this report, we have successfully prepared Prussian blue analogues (PBAs) with different substituted cations (A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+)). The synthe...

Mô tả đầy đủ

Đã lưu trong:

Chi tiết về thư mục
Những tác giả chính:	Lê, Thị Hà Lan, Nguyễn, An Sơn, Nguyễn, Đình Trung, Le, Thi Van Cam, Cao, Hai Van, Nguyen, Ngoc Bao, Le, Thi Thao Phuong
Định dạng:	Journal article
Ngôn ngữ:	English
Được phát hành:	Hindawi 2022
Truy cập trực tuyến:	http://scholar.dlu.edu.vn/handle/123456789/1198 https://doi.org/10.1155/2021/5533620
Các nhãn:	Thêm thẻ Không có thẻ, Là người đầu tiên thẻ bản ghi này!

Thư viện lưu trữ:	Thư viện Trường Đại học Đà Lạt

id	oai:scholar.dlu.edu.vn:123456789-1198
record_format	dspace
institution	Thư viện Trường Đại học Đà Lạt
collection	Thư viện số
language	English
description	Investigation in radioactive contaminant removal from aqueous solutions has been considered essential upon unexpected nuclear accidents. In this report, we have successfully prepared Prussian blue analogues (PBAs) with different substituted cations (A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+)). The synthesized PBAs were characterized and employed for the removal of Cs+, Sr2+, and Co2+ as sorption models, which are commonly found in radioactive waste. Sorption examinations reveal that Cu2[Fe(CN)6] has the highest sorption capacity towards Cs+, Sr2+, and Co2+ compared with those of Co2[Fe(CN)6] and Ni2[Fe(CN)6]. This is mainly attributed to the cation-exchange ability of substituted metal within the framework of PBAs. The sorption mechanism is qualitatively and quantitatively supported by infrared spectroscopy (IR) and total reflection X-ray fluorescence spectroscopy analysis (TXRF). In addition, it was found that Cs+ is adsorbed most effectively by PBAs due to the size matching between Cs+ ions and the channel windows of PBAs. These findings are important for the design of sorbents with suitable ion-exchange capacity and selectivity toward targeted radioactive wastes.
format	Journal article
author	Lê, Thị Hà Lan Nguyễn, An Sơn Nguyễn, Đình Trung Le, Thi Van Cam Cao, Hai Van Nguyen, Ngoc Bao Le, Thi Thao Phuong
spellingShingle	Lê, Thị Hà Lan Nguyễn, An Sơn Nguyễn, Đình Trung Le, Thi Van Cam Cao, Hai Van Nguyen, Ngoc Bao Le, Thi Thao Phuong Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+
author_facet	Lê, Thị Hà Lan Nguyễn, An Sơn Nguyễn, Đình Trung Le, Thi Van Cam Cao, Hai Van Nguyen, Ngoc Bao Le, Thi Thao Phuong
author_sort	Lê, Thị Hà Lan
title	Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+
title_short	Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+
title_full	Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+
title_fullStr	Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+
title_full_unstemmed	Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+
title_sort	prussian blue analogues of a2[fe(cn)6] (a: cu2+, co2+, and ni2+) and their composition-dependent sorption performances towards cs+, sr2+, and co2+
publisher	Hindawi
publishDate	2022
url	http://scholar.dlu.edu.vn/handle/123456789/1198 https://doi.org/10.1155/2021/5533620
_version_	1768305964372459520
spelling	oai:scholar.dlu.edu.vn:123456789-11982022-10-07T08:37:24Z Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+ Lê, Thị Hà Lan Nguyễn, An Sơn Nguyễn, Đình Trung Le, Thi Van Cam Cao, Hai Van Nguyen, Ngoc Bao Le, Thi Thao Phuong Investigation in radioactive contaminant removal from aqueous solutions has been considered essential upon unexpected nuclear accidents. In this report, we have successfully prepared Prussian blue analogues (PBAs) with different substituted cations (A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+)). The synthesized PBAs were characterized and employed for the removal of Cs+, Sr2+, and Co2+ as sorption models, which are commonly found in radioactive waste. Sorption examinations reveal that Cu2[Fe(CN)6] has the highest sorption capacity towards Cs+, Sr2+, and Co2+ compared with those of Co2[Fe(CN)6] and Ni2[Fe(CN)6]. This is mainly attributed to the cation-exchange ability of substituted metal within the framework of PBAs. The sorption mechanism is qualitatively and quantitatively supported by infrared spectroscopy (IR) and total reflection X-ray fluorescence spectroscopy analysis (TXRF). In addition, it was found that Cs+ is adsorbed most effectively by PBAs due to the size matching between Cs+ ions and the channel windows of PBAs. These findings are important for the design of sorbents with suitable ion-exchange capacity and selectivity toward targeted radioactive wastes. 2021 2022-10-07T08:37:21Z 2022-10-07T08:37:21Z 2021-03-27 Journal article Bài báo đăng trên tạp chí thuộc ISI, bao gồm book chapter http://scholar.dlu.edu.vn/handle/123456789/1198 https://doi.org/10.1155/2021/5533620 en Journal of Nanomaterials 1687-4110 J. Jewell, “Ready for nuclear energy?: An assessment of capacities and motivations for launching new national nuclear power programs,” Energy Policy, vol. 39, no. 3, pp. 1041–1055, 2011. Anonymus, Radiological Characterization of Shut Down Nuclear Reactors for Decommissioning Purposes, Atomic Energy Agency, 1998. M. Laraia, “Introduction to nuclear decommissioning: definitions and history,” in Nuclear Decommissioning, Elsevier, 2012. M. Xing, S. Zhuang, and J. Wang, “Efficient removal of Cs(I) from aqueous solution using graphene oxide,” Progress in Nuclear Energy, vol. 119, article 103167, 2020. H.-M. Yang, K. S. Hwang, C. W. Park, and K.-W. Lee, “Sodium-copper hexacyanoferrate-functionalized magnetic nanoclusters for the highly efficient magnetic removal of radioactive caesium from seawater,” Water Research, vol. 125, pp. 81–90, 2017. H.-R. Yu, J.-Q. Hu, Z. Liu et al., “Ion-recognizable hydrogels for efficient removal of cesium ions from aqueous environment,” Journal of Hazardous Materials, vol. 323, no. Part B, pp. 632–640, 2017. A. M. Emara, F. H. El-Sweify, S. F. Abo-Zahra, A. I. Hashim, and T. E. Siyam, “Removal of Cs-137 and Sr-90 from reactor actual liquid waste samples using a new synthesized bionanocomposite-based carboxymethylcellulose,” Radiochimica Acta, vol. 107, no. 8, pp. 695–711, 2019. G. L. Brownell and C. J. Maletskos, “Half-Life ofFe55andCo60,” Physical Review, vol. 80, no. 6, pp. 1102-1103, 1950. M. Manolopoulou, E. Vagena, S. Stoulos, A. Ioannidou, and C. Papastefanou, “Radioiodine and radiocesium in Thessaloniki, northern Greece due to the Fukushima nuclear accident,” Journal of Environmental Radioactivity, vol. 102, no. 8, pp. 796-797, 2011. D. Kim, A. Jo, H.-M. Yang, B.-K. Seo, K.-W. Lee, and T. S. Lee, “Colorimetric detection and removal of radioactive co ions using sodium alginate-based composite beads,” Journal of Hazardous Materials, vol. 326, pp. 69–76, 2017. C. A. Kozlowski, J. Kozlowska, W. Pellowski, and W. Walkowiak, “Separation of cobalt-60, strontium-90, and cesium-137 radioisotopes by competitive transport across polymer inclusion membranes with organophosphorous acids,” Desalination, vol. 198, no. 1-3, pp. 141–148, 2006. C. A. Kozlowski, W. Walkowiak, and W. Pellowski, “Sorption and transport of Cs-137, Sr-90 and co-60 radionuclides by polymer inclusion membranes,” Desalination, vol. 242, no. 1-3, pp. 29–37, 2009. B. Ma, S. Oh, W. S. Shin, and S.-J. Choi, “Removal of Co2+, Sr2+ and Cs+ from aqueous solution by phosphate-modified montmorillonite (PMM),” Desalination, vol. 276, no. 1-3, pp. 336–346, 2011. P. Sylvester and A. Clearfield, “The removal of strontium and cesium from simulated Hanford groundwater using inorganic ion exchange materials,” Solvent Extraction and Ion Exchange, vol. 16, no. 6, pp. 1527–1539, 1998. A. Nilchi, H. Atashi, A. H. Javid, and R. Saberi, “Preparations of PAN-based adsorbers for separation of cesium and cobalt from radioactive wastes,” Applied Radiation and Isotopes, vol. 65, no. 5, pp. 482–487, 2007. A. F. Seliman, Y. F. Lasheen, M. A. E. Youssief, M. M. Abo-Aly, and F. A. Shehata, “Removal of some radionuclides from contaminated solution using natural clay: bentonite,” Journal of Radioanalytical and Nuclear Chemistry, vol. 300, no. 3, pp. 969–979, 2014. T. Kubota, S. Fukutani, T. Ohta, and Y. Mahara, “Removal of radioactive cesium, strontium, and iodine from natural waters using bentonite, zeolite, and activated carbon,” Journal of Radioanalytical and Nuclear Chemistry, vol. 296, no. 2, pp. 981–984, 2013. N. R. de Tacconi, K. Rajeshwar, and R. O. Lezna, “Metal hexacyanoferrates: electrosynthesis, in situ characterization, and applications,” Chemistry of Materials, vol. 15, no. 16, pp. 3046–3062, 2003. T. Vincent, C. Vincent, Y. Barré, Y. Guari, G. le Saout, and E. Guibal, “Immobilization of metal hexacyanoferrates in chitin beads for cesium sorption: synthesis and characterization,” Journal of Materials Chemistry A., vol. 2, no. 26, pp. 10007–10021, 2014. J. Wang, S. Zhuang, and Y. Liu, “Metal hexacyanoferrates-based adsorbents for cesium removal,” Coordination Chemistry Reviews, vol. 374, pp. 430–438, 2018. M. S. Denton, M. J. Manos, and M. G. Kanatzidi, “Highly selective removal of cesium and strontium utilizing a new class of inorganic ion specific media–92670,” Northwestern University, Department of Chemistry, vol. 2145, pp. 60208–63113, 2009. View at: Google Scholar B. Aguila, D. Banerjee, Z. Nie, Y. Shin, S. Ma, and P. K. Thallapally, “Selective removal of cesium and strontium using porous frameworks from high level nuclear waste,” Chemical Communications, vol. 52, no. 35, pp. 5940–5942, 2016. L. Catala and T. Mallah, “Nanoparticles of Prussian blue analogs and related coordination polymers: from information storage to biomedical applications,” Coordination Chemistry Reviews, vol. 346, pp. 32–61, 2017. A. Nowak-Król and F. Würthner, “Progress in the synthesis of perylene bisimide dyes,” Organic Chemistry Frontiers, vol. 6, no. 8, pp. 1272–1318, 2019. X. Liu, G.-R. Chen, D.-J. Lee et al., “Adsorption removal of cesium from drinking waters: a mini review on use of biosorbents and other adsorbents,” Bioresource Technology, vol. 160, pp. 142–149, 2014. S. Adak, L. L. Daemen, M. Hartl, D. Williams, J. Summerhill, and H. Nakotte, “Thermal expansion in 3 d -metal Prussian Blue Analogs-a survey study,” Journal of Solid State Chemistry, vol. 184, no. 11, pp. 2854–2861, 2011. S. Ayrault, B. Jimenez, E. Garnier, M. Fedoroff, D. J. Jones, and C. Loos-Neskovic, “Sorption Mechanisms of cesium on CuII2FeII(CN)6and CuII3[FeIII(CN)6]2hexacyanoferrates and their relation to the crystalline structure,” Journal of solid state Chemistry, vol. 141, no. 2, pp. 475–485, 1998. S. N. Ghosh, “Infrared spectra of the Prussian blue analogs,” Journal of Inorganic and Nuclear Chemistry, vol. 36, no. 11, pp. 2465-2466, 1974. K. Itaya, I. Uchida, and V. D. Neff, “Electrochemistry of polynuclear transition metal cyanides: Prussian blue and its analogues,” Accounts of Chemical Research, vol. 19, no. 6, pp. 162–168, 1986. L. Hu, P. Zhang, Q. W. Chen, J. Y. Mei, and N. Yan, “Room-temperature synthesis of Prussian blue analogue Co3[Co(CN)6]2 porous nanostructures and their CO2 storage properties,” RSC Advances, vol. 1, pp. 1574–1578, 2011. S. Xu, X. Qian, and G. Li, “Size and morphology-controlled Ni2[Fe(CN)6] H2O Prussian Blue analogue fabricated via a hydrothermal route,” Materials Research Bulletin, vol. 43, no. 1, pp. 135–140, 2008. F. Karadas, H. el-Faki, E. Deniz, C. T. Yavuz, S. Aparicio, and M. Atilhan, “CO2 adsorption studies on Prussian blue analogues,” Microporous and Mesoporous Materials, vol. 162, pp. 91–97, 2012. J. Lejeune, J.-B. Brubach, P. Roy, and A. Bleuzen, “Application of the infrared spectroscopy to the structural study of Prussian blue analogues,” Comptes Rendus Chimie, vol. 17, no. 6, pp. 534–540, 2014. X. Li, J. Liu, A. I. Rykov et al., “Excellent photo-Fenton catalysts of Fe-Co Prussian blue analogues and their reaction mechanism study,” Applied Catalysis B: Environmental, vol. 179, pp. 196–205, 2015. J. Liu, X. Li, A. I. Rykov et al., “Zinc-modulated Fe–Co Prussian blue analogues with well-controlled morphologies for the efficient sorption of cesium,” Journal of Materials Chemistry A, vol. 5, no. 7, pp. 3284–3292, 2017. E. R. Nightingale Jr., “Phenomenological theory of ion solvation. Effective radii of hydrated ions,” The Journal of Physical Chemistry, vol. 63, no. 9, pp. 1381–1387, 1959. T. Sangvanich, V. Sukwarotwat, R. J. Wiacek et al., “Selective capture of cesium and thallium from natural waters and simulated wastes with copper ferrocyanide functionalized mesoporous silica,” Journal of Hazardous Materials, vol. 182, no. 1-3, pp. 225–231, 2010. A. M. El-Kamash, “Evaluation of zeolite A for the sorptive removal of Cs+ and Sr2+ ions from aqueous solutions using batch and fixed bed column operations,” Journal of Hazardous Materials, vol. 151, no. 2-3, pp. 432–445, 2008. H. Yang, L. Sun, J. Zhai, H. Li, Y. Zhao, and H. Yu, “In situ controllable synthesis of magnetic Prussian blue/graphene oxide nanocomposites for removal of radioactive cesium in water,” Journal of Materials Chemistry A, vol. 2, no. 2, pp. 326–332, 2014. M. R. Awual, T. Yaita, T. Taguchi, H. Shiwaku, S. Suzuki, and Y. Okamoto, “Selective cesium removal from radioactive liquid waste by crown ether immobilized new class conjugate adsorbent,” Journal of Hazardous Materials, vol. 278, pp. 227–235, 2014. N. L. Torad, M. Hu, M. Imura, M. Naito, and Y. Yamauchi, “Large Cs adsorption capability of nanostructured Prussian blue particles with high accessible surface areas,” Journal of Materials Chemistry, vol. 22, no. 35, pp. 18261–18267, 2012. M. Shamsipur and H. R. Rajabi, “Flame photometric determination of cesium ion after its preconcentration with nanoparticles imprinted with the cesium-dibenzo-24-crown-8 complex,” Microchimica Acta, vol. 180, no. 3-4, pp. 243–252, 2013. J. Jang and D. S. Lee, “Magnetic Prussian blue nanocomposites for effective cesium removal from aqueous solution,” Industrial & Engineering Chemistry Research, vol. 55, no. 13, pp. 3852–3860, 2016. Y. Kim, Y. K. Kim, S. Kim, D. Harbottle, and J. W. Lee, “Nanostructured potassium copper hexacyanoferrate-cellulose hydrogel for selective and rapid cesium adsorption,” Chemical Engineering Journal, vol. 313, pp. 1042–1050, 2017. S. Naeimi and H. Faghihian, “Performance of novel adsorbent prepared by magnetic metal-organic framework (MOF) modified by potassium nickel hexacyanoferrate for removal of Cs+ from aqueous solution,” Separation and Purification Technology, vol. 175, pp. 255–265, 2017. Y. JIAN, W.-J. MU, N. LIU, and S.-M. PENG, “Removal of Sr2+ ions by ta-doped hexagonal WO3: zeta potential measurements and adsorption mechanism determination,” Acta Physico-Chimica Sinica, vol. 32, no. 8, pp. 2052–2058, 2016. Y. Zhu, T. Shimizu, T. Kitajima et al., “Synthesis of robust hierarchically porous zirconium phosphate monolith for efficient ion adsorption,” New Journal of Chemistry, vol. 39, no. 4, pp. 2444–2450, 2015. L. Nagy, G. Török, N. Vajda, and I. Gerlei, Preparation of Zirconium-Phosphate on Support Material and its Application for the Sorption of some Radioactive Ions, Mitteilungsblatt der Chemischen Gesellschaft der Deutschen Demokratischen Republik, Beiheft, 1979. H. Tel, Y. Altaş, M. Eral, Ş. Sert, B. Çetinkaya, and S. İnan, “Preparation of ZrO2 and ZrO2-TiO2 microspheres by the sol- gel method and an experimental design approach to their strontium adsorption behaviours,” Chemical Engineering Journal, vol. 161, no. 1-2, pp. 151–160, 2010. W. Mu, Q. Yu, R. Zhang et al., “Controlled fabrication of flower-like -zirconium phosphate for the efficient removal of radioactive strontium from acidic nuclear wastewater,” Journal of Materials Chemistry A, vol. 5, no. 46, pp. 24388–24395, 2017. T. M. Nenoff, J. E. Miller, S. G. Thoma, and D. E. Trudell, “Highly selective inorganic crystalline ion exchange material for Sr2+ in acidic solutions,” Environmental Science & Technology, vol. 30, no. 12, pp. 3630–3633, 1996. S. Sungworawongpana and S. Pengprecha, “Calcination effect of diatomite to chromate adsorption,” Procedia Engineering, vol. 8, pp. 53–57, 2011. H. Faghihian, M. Iravani, M. Moayed, and M. Ghannadi-Maragheh, “Preparation of a novel PAN-zeolite nanocomposite for removal of Cs+ and Sr2+ from aqueous solutions: Kinetic, equilibrium, and thermodynamic studies,” Chemical Engineering Journal, vol. 222, pp. 41–48, 2013. B. Liu, W. Mu, X. Xie et al., “Enhancing the adsorption capacity of Sr2+ and Cs+ onto hexagonal tungsten oxide by doped niobium,” RSC Advances, vol. 5, no. 20, pp. 15603–15611, 2015. W. Mu, S. du, Q. Yu et al., “Highly efficient removal of radioactive 90Sr based on sulfonic acid-functionalized -zirconium phosphate nanosheets,” Chemical Engineering Journal, vol. 361, pp. 538–546, 2019. M. U. Ibezim-Ezeani, F. A. Okoye, and O. Akaranta, “Studies on the ion exchange properties of modified and unmodified orange mesocarp extract in aqueous solution,” International Archive of Applied Science & Technolgy, vol. 1, pp. 33–40, 2010. View at: Google Scholar W. Guo, R. Chen, Y. Liu et al., “Preparation of ion-imprinted mesoporous silica SBA-15 functionalized with triglycine for selective adsorption of Co(II),” Colloids and Surfaces A: Physicochemical and Engineering Aspects, vol. 436, pp. 693–703, 2013. A. Rámila, B. Muñoz, J. Pérez-Pariente, and M. Vallet-Regí, “Mesoporous MCM-41 as drug host system,” Journal of Sol-Gel Science and Technology, vol. 26, no. 1/3, pp. 1199–1202, 2003. J. Andersson, J. Rosenholm, S. Areva, and M. Lindén, “Influences of material characteristics on ibuprofen drug loading and release profiles from ordered micro- and mesoporous silica matrices,” Chemistry of Materials, vol. 16, no. 21, pp. 4160–4167, 2004. S. Tizro and H. Baseri, “Removal of cobalt ions from contaminated water using magnetite based nanocomposites: effects of various parameters on the removal efficiency,” Journal of Water and Environmental Nanotechnology, vol. 2, no. 3, pp. 174–185, 2017. View at: Google Scholar F. Fang, L. Kong, J. Huang et al., “Removal of cobalt ions from aqueous solution by an amination graphene oxide nanocomposite,” Journal of Hazardous Materials, vol. 270, pp. 1–10, 2014. Hindawi

Prussian Blue Analogues of A2[Fe(CN)6] (A: Cu2+, Co2+, and Ni2+) and Their Composition-Dependent Sorption Performances towards Cs+, Sr2+, and Co2+

Những quyển sách tương tự