Cr-containing wastewater treatment based on Cr self-catalysis: a critical review

Manshu Zhao , Xinhua Wang , Shuguang Wang , Mingming Gao

Front. Environ. Sci. Eng. ›› 2024, Vol. 18 ›› Issue (1) : 1

PDF (8955KB)
Front. Environ. Sci. Eng. ›› 2024, Vol. 18 ›› Issue (1) : 1 DOI: 10.1007/s11783-024-1761-1
REVIEW ARTICLE
REVIEW ARTICLE

Cr-containing wastewater treatment based on Cr self-catalysis: a critical review

Author information +
History +
PDF (8955KB)

Abstract

● Cr self-catalysis behaviors during Cr-initiated AOPs were described.

● Cr transformation in AOPs-based synergistic systems was reviewed.

● Discussed detection methods for active species related to Cr-initiated AOPs systems.

● This review provided insights into Cr self-catalysis and its applications.

Chromium (Cr), as a transition metal material with multiple redox states, has exhibited the catalysis toward Fenton-like reactions over a wide pH range. Although it is not sensible to add Cr reagents as catalysts due to its toxicity, it is highly promising to remediate Cr-containing wastewater through Cr-initiated advanced oxidation processes (Cr-initiated AOPs), which are clean and low-cost. Moreover, the widely concerned Cr-complexes, considered as obstacles in the remediation process, can be effectively destroyed by AOPs. Cr self-catalysis is defined as Cr species is both substrate and catalyst. However, the full understanding of Cr self-catalysis, including the generation of intermediates Cr(IV)/Cr(V), the synergetic effects with co-existing ions, and the accumulation of toxic Cr(VI), remains a challenge for the practical application of Cr-initiated AOPs. In this review, relevant researches on Cr self-catalysis during Cr-initiated AOPs are summarized. Specifically, the Cr-Fenton-like reaction, Cr substituted materials, and Cr-sulfite reactions are explored as key mechanisms contributing to Cr self-catalysis. Moreover, Cr transformation processes, including synchronously Cr removal, Cr redox reactions, and Cr(VI) accumulation, in AOPs-based synergistic systems are systematically analyzed. Detailed approaches for the detection of active species in AOPs-based systems are also presented. The primary objective of this review is to explore the application of AOPs for Cr-containing wastewater remediation based on Cr self-catalysis, and provide fundamental insights and valuable information for future research on Cr-initiated AOPs.

Graphical abstract

Keywords

Self-catalysis / Cr-initiated AOPs / Cr transformation / Cr intermediates / Cr-containing wastewater

Cite this article

Download citation ▾
Manshu Zhao, Xinhua Wang, Shuguang Wang, Mingming Gao. Cr-containing wastewater treatment based on Cr self-catalysis: a critical review. Front. Environ. Sci. Eng., 2024, 18(1): 1 DOI:10.1007/s11783-024-1761-1

登录浏览全文

4963

注册一个新账户 忘记密码

References

[1]

Abbasi H, Salimi F, Golmohammadi F. (2020). Removal of cadmium from aqueous solution by nano composites of bentonite/TiO2 and bentonite/ZnO using photocatalysis adsorption process. Silicon, 12(11): 2721–2731

[2]

AberS, Amani-Ghadim A R, MirzajaniV (2009). Removal of Cr(VI) from polluted solutions by electrocoagulation: modeling of experimental results using artificial neural network. Journal of Hazardous Materials, 171(1–3): 484–490

[3]

Adhoum N, Monser L, Bellakhal N, Belgaied J E. (2004). Treatment of electroplating wastewater containing Cu2+, Zn2+ and Cr(VI) by electrocoagulation. Journal of Hazardous Materials, 112(3): 207–213

[4]

Ahile U J, Wuana R A, Itodo A U, Sha’ato R, Dantas R F. (2020). Stability of iron chelates during photo-Fenton process: the role of pH, hydroxyl radical attack and temperature. Journal of Water Process Engineering, 36: 101320

[5]

An C, Huang G, Yao Y, Zhao S. (2017). Emerging usage of electrocoagulation technology for oil removal from wastewater: a review. Science of the Total Environment, 579: 537–556

[6]

Ao X W, Eloranta J, Huang C H, Santoro D, Sun W J, Lu Z D, Li C. (2021). Peracetic acid-based advanced oxidation processes for decontamination and disinfection of water: a review. Water Research, 188: 116479

[7]

Arul N S, Mangalaraj D, Han J I. (2015). Photocatalytic degradation of acid orange 7 using Cr-doped CeO2 nanorods. Journal of Materials Science Materials in Electronics, 26(3): 1441–1448

[8]

Baeza A, Guillena G, Ramon D J. (2016). Magnetite and metal-impregnated magnetite catalysts in organic synthesis: a very old concept with new promising perspectives. ChemCatChem, 8(1): 49–67

[9]

BanerjeeD, Nesbitt H W (1999). Oxidation of aqueous Cr(III) at birnessite surfaces: constraints on reaction mechanism. Geochimica et Cosmochimica Acta, 63(11–12): 1671–1687

[10]

Barr-David G, Charara M, Codd R, Farrell R P, Irwin J A, Lay P A, Bramley R, Brumby S, Ji J Y, Hanson G R. (1995). EPR characterisation of the CrV intermediates in the CrVI/V oxidations of organic substrates and of relevance to Cr-induced cancers. Journal of the Chemical Society, Faraday Transactions, 91(8): 1207–1216

[11]

Barreiro FidalgoA, KumagaiY, Jonsson M (2018). The role of surface-bound hydroxyl radicals in the reaction between H2O2 and UO2. Journal of Coordination Chemistry, 71(11–13): 1799–1807

[12]

BiggsS, Habgood M, JamesonG J, YanY D (2000). Aggregate structures formed via a bridging flocculation mechanism. Chemical Engineering Journal, 80(1–3): 13–22

[13]

Bokare A D, Choi W. (2010). Chromate-induced activation of hydrogen peroxide for oxidative degradation of aqueous organic pollutants. Environmental Science & Technology, 44(19): 7232–7237

[14]

Bokare A D, Choi W. (2011). Advanced oxidation process based on the Cr(III)/Cr(VI) redox cycle. Environmental Science & Technology, 45(21): 9332–9338

[15]

Bokare A D, Choi W. (2014). Review of iron-free Fenton-like systems for activating H2O2 in advanced oxidation processes. Journal of Hazardous Materials, 275: 121–135

[16]

Bose R N, Moghaddas S, Gelerinter E. (1992). Long-lived chromium (IV) and chromium (V) metabolites in the chromium (VI)-glutathione reaction: NMR, ESR, HPLC, and kinetic characterization. Inorganic Chemistry, 31(11): 1987–1994

[17]

Brillas E, Sirés I, Oturan M A. (2009). Electro-Fenton process and related electrochemical technologies based on Fenton’s reaction chemistry. Chemical Reviews, 109(12): 6570–6631

[18]

Chandana L, Lakshminarayana B, Subrahmanyam C. (2015). Influence of hydrogen peroxide on the simultaneous removal of Cr(VI) and methylene blue from aqueous medium under atmospheric pressure plasma jet. Journal of Environmental Chemical Engineering, 3(4): 2760–2767

[19]

Chen F, Wu X L, Shi C Y, Lin H J, Chen J R, Shi Y P, Wang S B, Duan X G. (2021). Molecular engineering toward pyrrolic N-Rich M-N4 (M = Cr, Mn, Fe, Co, Cu) single-atom sites for enhanced heterogeneous Fenton-like reaction. Advanced Functional Materials, 31(13): 2007877

[20]

Chen H W, Wang W L, Yang Y, Jiang P F, Gao W L, Cong R H, Yang T. (2019). Solvent effect on the formation of active free radicals from H2O2 catalyzed by Cr-substituted PKU-1 aluminoborate: Spectroscopic investigation and reaction mechanism. Applied Catalysis, A-General, 588: 117283

[21]

Cohn C A, Simon S R, Schoonen M A. (2008). Comparison of fluorescence-based techniques for the quantification of particle-induced hydroxyl radicals. Particle and Fibre Toxicology, 5(2): 1–9

[22]

DhalB, Thatoi H N, DasN N, PandeyB D (2013).Chemical and microbial remediation of hexavalent chromium from contaminated soil and mining/metallurgical solid waste: a review. Journal of Hazardous Materials, 250251: 272–291

[23]

Diesen V, Jonsson M. (2014). Formation of H2O2 in TiO2 photocatalysis of oxygenated and deoxygenated aqueous systems: a probe for photocatalytically produced hydroxyl radicals. Journal of Physical Chemistry C, 118(19): 10083–10087

[24]

Dong H, Li Y, Wang S, Liu W, Zhou G, Xie Y, Guan X. (2020a). Both Fe(IV) and radicals are active oxidants in the Fe(II)/peroxydisulfate process. Environmental Science & Technology Letters, 7(3): 219–224

[25]

Dong H, Wei G, Cao T, Shao B, Guan X, Strathmann T J. (2020b). Insights into the oxidation of organic cocontaminants during Cr(VI) reduction by sulfite: the overlooked significance of Cr(V). Environmental Science & Technology, 54(2): 1157–1166

[26]

Dong H Y, Wei G F, Fan W J, Ma S C, Zhao H Y, Zhang W X, Guan X H, Strathmann T J. (2018). Reinvestigating the role of reactive species in the oxidation of organic co-contaminants during Cr(VI) reactions with sulfite. Chemosphere, 196: 593–597

[27]

Dorri H, Zeraatkar Moghaddam A, Ghiamati E, Barikbin B. (2022). A comprehensive study on the adsorption-photocatalytic processes using CoFe2O4/SiO2/MnO2 magnetic nanocomposite as a novel photo-catalyst for removal of Cr(VI) under simulated sunlight: isotherm, kinetic and thermodynamic studies. Journal of Environmental Health Science & Engineering, 20: 147–165

[28]

Du J, Zhang B, Li J, Lai B. (2020). Decontamination of heavy metal complexes by advanced oxidation processes: a review. Chinese Chemical Letters, 31(10): 2575–2582

[29]

Emamjomeh M M, Sivakumar M. (2009). Review of pollutants removed by electrocoagulation and electrocoagulation/flotation processes. Journal of Environmental Management, 90(5): 1663–1679

[30]

Esteves B M, Rodrigues C S D, Maldonado-Hódar F J, Madeira L M. (2019). Treatment of high-strength olive mill wastewater by combined Fenton-like oxidation and coagulation/flocculation. Journal of Environmental Chemical Engineering, 7(4): 103252

[31]

Finkelstein E, Rosen G M, Rauckman E J. (1980). Spin trapping of superoxide and hydroxyl radical: practical aspects. Archives of Biochemistry and Biophysics, 200(1): 1–16

[32]

GilPavas E, Dobrosz-Gomez I, Gomez-Garcia M A. (2017). Coagulation-flocculation sequential with Fenton or photo-Fenton processes as an alternative for the industrial textile wastewater treatment. Journal of Environmental Management, 191: 189–197

[33]

Golder A K, Chanda A K, Samanta A N, Ray S. (2007). Removal of Cr(VI) from aqueous solution: electrocoagulation vs chemical coagulation. Separation Science and Technology, 42(10): 2177–2193

[34]

GracePavithra K, Jaikumar V, Kumar P S, Sundarrajan P. (2019). A review on cleaner strategies for chromium industrial wastewater: present research and future perspective. Journal of Cleaner Production, 228: 580–593

[35]

Guo L, Zhao J, Zhao L, Tang Y, Zhou J, Shi B. (2021). Persulfate activation by Cr2O3/BC derived from chrome shavings for antibiotics degradation. Chemical Engineering Journal, 420: 127698

[36]

Guo S, Yang W, You L, Li J, Chen J, Zhou K. (2020). Simultaneous reduction of Cr(VI) and degradation of tetracycline hydrochloride by a novel iron-modified rectorite composite through heterogeneous photo-Fenton processes. Chemical Engineering Journal, 393: 124758

[37]

Habiba U, Siddique T A, Joo T C, Salleh A, Ang B C, Afifi A M. (2017). Synthesis of chitosan/polyvinyl alcohol/zeolite composite for removal of methyl orange, Congo red and chromium(VI) by flocculation/adsorption. Carbohydrate Polymers, 157: 1568–1576

[38]

Hao Y, Ma H, Wang Q, Zhu C, He A. (2022). Complexation behaviour and removal of organic-Cr(III) complexes from the environment: a review. Ecotoxicology and Environmental Safety, 240: 113676

[39]

Harif T, Khai M, Adin A. (2012). Electrocoagulation versus chemical coagulation: coagulation/flocculation mechanisms and resulting floc characteristics. Water Research, 46(10): 3177–3188

[40]

Hashemi M, Amin M M, Sadeghi S, Menglizadeh N, Mohammadi F, Patastar S, Chavoshani A, Rezaei S. (2017). Coupling adsorption by NiO nanopowder with UV/H2O2 process for Cr(VI) removal. Journal of Advances in Environmental Health Research, 5(4): 210–219

[41]

He H, Zhou Z. (2017). Electro-Fenton process for water and wastewater treatment. Critical Reviews in Environmental Science and Technology, 47(21): 2100–2131

[42]

Heidmann I, Calmano W. (2008a). Removal of Cr(VI) from model wastewaters by electrocoagulation with Fe electrodes. Separation and Purification Technology, 61(1): 15–21

[43]

Heidmann I, Calmano W. (2008b). Removal of Zn(II), Cu(II), Ni(II), Ag(I) and Cr(VI) present in aqueous solutions by aluminium electrocoagulation. Journal of Hazardous Materials, 152(3): 934–941

[44]

Heidmann I, Calmano W. (2010). Removal of Ni, Cu and Cr from a galvanic wastewater in an electrocoagulation system with Fe- and Al-electrodes. Separation and Purification Technology, 71(3): 308–314

[45]

Hu P D, Long M C. (2016). Cobalt-catalyzed sulfate radical-based advanced oxidation: a review on heterogeneous catalysts and applications. Applied Catalysis B: Environmental, 181: 103–117

[46]

Huang B, Qi C, Yang Z, Guo Q, Chen W, Zeng G, Lei C. (2017). Pd/Fe3O4 nanocatalysts for highly effective and simultaneous removal of humic acids and Cr(VI) by electro-Fenton with H2O2 in situ electro-generated on the catalyst surface. Journal of Catalysis, 352: 337–350

[47]

HuangC P, Dong C, TangZ (1993). Advanced chemical oxidation: its present role and potential future in hazardous waste treatment. Waste Management (New York, N.Y.), 13(5–7): 361–377

[48]

Huang X F, Wang X R, Guan D X, Zhou H B, Bei K, Zheng X Y, Jin Z, Zhang Y J, Wang Q, Zhao M. (2019). Decomplexation of Cr(III)-EDTA and simultaneous abatement of total Cr by photo-oxidation: efficiency and in situ reduction of intermediate Cr(VI). Environmental Science and Pollution Research International, 26(9): 8516–8524

[49]

IrieH, Shibanuma T, KamiyaK, MiuraS, Yokoyama T, HashimotoK (2010). Characterization of Cr(III)-grafted TiO2 for photocatalytic reaction under visible light. Applied Catalysis B: Environmental, 96(1–2): 142–147

[50]

Jafari A J, Golbaz S, Kalantary R R. (2013). Treatment of hexavalent chromium by using a combined Fenton and chemical precipitation process. Journal of Water Reuse and Desalination, 3(4): 373–380

[51]

Jain A, Pal S L, Jaiswal Y, Srivastava S. (2022). Designing a feasible phenol destruction process using LaM1–xCuxO3 (M = Co, Cr, Fe) perovskites as heterogeneous Fenton-like catalysts. Arabian Journal for Science and Engineering, 47(5): 5777–5796

[52]

Jiang B, Liu Y K, Zheng J T, Tan M H, Wang Z H, Wu M B. (2015). Synergetic transformations of multiple pollutants driven by Cr(VI)-sulfite reactions. Environmental Science & Technology, 49(20): 12363–12371

[53]

Jiang B, Niu Q, Li C, Oturan N, Oturan M A. (2020). Outstanding performance of electro-Fenton process for efficient decontamination of Cr(III) complexes via alkaline precipitation with no accumulation of Cr(VI): important roles of iron species. Applied Catalysis B: Environmental, 272: 119002

[54]

Jiang B, Wang X L, Liu Y K, Wang Z H, Zheng J T, Wu M B. (2016). The roles of polycarboxylates in Cr(VI)/sulfite reaction system: involvement of reactive oxygen species and intramolecular electron transfer. Journal of Hazardous Materials, 304: 457–466

[55]

Kim D H, Lee D, Monllor-Satoca D, Kim K, Lee W, Choi W. (2019). Homogeneous photocatalytic Fe3+/Fe2+ redox cycle for simultaneous Cr(VI) reduction and organic pollutant oxidation: roles of hydroxyl radical and degradation intermediates. Journal of Hazardous Materials, 372: 121–128

[56]

Kim T, Kim T K, Zoh K D. (2020). Removal mechanism of heavy metal (Cu, Ni, Zn, and Cr) in the presence of cyanide during electrocoagulation using Fe and Al electrodes. Journal of Water Process Engineering, 33: 101109

[57]

Kostarelos K, Rao E, Reale D, Moon D H. (2009). Reduction of Cr(VI) to Cr(III) in artificial, contaminated soil using Ferrous sulfate heptahydrate and sodium thiosulfate. Technical Notes, 13(2): 135–139

[58]

Lei D, Xue J, Peng X, Li S, Bi Q, Tang C, Zhang L. (2021). Oxalate enhanced synergistic removal of chromium(VI) and arsenic(III) over ZnFe2O4/g-C3N4: Z-scheme charge transfer pathway and photo-Fenton like reaction. Applied Catalysis B: Environmental, 282: 119578

[59]

Li J H, Bai J, Huang K, Zhou B X, Wang Y H, Hu X F. (2014). Removal of trivalent chromium in the complex state of trivalent chromium passivation wastewater. Chemical Engineering Journal, 236: 59–65

[60]

Li N, Tian Y, Zhao J, Zhang J, Zhang J, Zuo W, Ding Y. (2017). Efficient removal of chromium from water by Mn3O4@ZnO/Mn3O4 composite under simulated sunlight irradiation: synergy of photocatalytic reduction and adsorption. Applied Catalysis B: Environmental, 214: 126–136

[61]

Liang J L, Huang X M, Yan J W, Li Y Y, Zhao Z W, Liu Y Y, Ye J Y, Wei Y M. (2021). A review of the formation of Cr(VI) via Cr(III) oxidation in soils and groundwater. Science of the Total Environment, 774: 145762

[62]

Liang X L, He Z S, Zhong Y H, Tan W, He H P, Yuan P, Zhu J X, Zhang J. (2013). The effect of transition metal substitution on the catalytic activity of magnetite in heterogeneous Fenton reaction: in interfacial view. Colloids and Surfaces, A-Physicochemical and Engineering Aspects, 435: 28–35

[63]

Liang X L, Zhong Y H, He H P, Yuan P, Zhu J X, Zhu S Y, Jiang Z. (2012). The application of chromium substituted magnetite as heterogeneous Fenton catalyst for the degradation of aqueous cationic and anionic dyes. Chemical Engineering Journal, 191: 177–184

[64]

Lin R, Li Y, Yong T, Cao W, Wu J, Shen Y. (2022). Synergistic effects of oxidation, coagulation and adsorption in the integrated fenton-based process for wastewater treatment: a review. Journal of Environmental Management, 306: 114460

[65]

Liu J, Chen H, Zhu C, Han S, Li J, She S, Wu X. (2022a). Efficient simultaneous removal of tetracycline hydrochloride and Cr(VI) through photothermal-assisted photocatalytic-Fenton-like processes with CuOx/γ-Al2O3. Journal of Colloid and Interface Science, 622: 526–538

[66]

Liu W, Yu Y. (2022). A novel strategy for treating chromium complex wastewater: the combination of a Fenton-like reaction and adsorption using cobalt/iron-layered double hydroxide as catalyst and adsorbent. Journal of Cleaner Production, 370: 133337

[67]

Liu X, Li X M, Yang Q, Yue X, Shen T T, Zheng W, Luo K, Sun Y H, Zeng G M (2012). Landfill leachate pretreatment by coagulation–flocculation process using iron-based coagulants: optimization by response surface methodology. Chemical Engineering Journal, 200–202: 39–51 10.1016/j.cej.2012.06.012

[68]

Liu Y, Wang D F, Xue M M, Song R Y, Zhang Y, Qu G Z, Wang T C. (2021). High-efficient decomplexation of Cu-EDTA and Cu removal by high-frequency non-thermal plasma oxidation/alkaline precipitation. Separation and Purification Technology, 257: 117885

[69]

Liu Z, Lv Y, Wang Y, Wang S, Odebiyi O S, Liu B, Zhang Y, Du H. (2022b). Oxidative leaching of V–Cr-bearing reducing slag via a Cr(III) induced Fenton-like reaction in concentrated alkaline solutions. Journal of Hazardous Materials, 439: 129495

[70]

Long Z, Li Q, Wei T, Zhang G, Ren Z. (2020). Historical development and prospects of photocatalysts for pollutant removal in water. Journal of Hazardous Materials, 395: 122599

[71]

Lu J, Wang Z R, Liu Y L, Tang Q. (2016). Removal of Cr ions from aqueous solution using batch electrocoagulation: Cr removal mechanism and utilization rate of in situ generated metal ions. Process Safety and Environmental Protection, 104: 436–443

[72]

Lu K Q, Gao M M, Sun B, Wang M, Wang S G, Wang X H. (2022). Simultaneous removal of Cr and organic matters via coupling Cr-Fenton-like reaction with Cr flocculation: The key role of Cr flocs on coupling effect. Chemosphere, 287: 131991

[73]

Lücking F, Koser H, Jank M, Ritter A. (1998). Iron powder, graphite and activated carbon as catalysts for the oxidation of 4-chlorophenol with hydrogen peroxide in aqueous solution. Water Research, 32(9): 2607–2614

[74]

Luo H W, Zeng Y F, He D Q, Pan X L. (2021). Application of iron-based materials in heterogeneous advanced oxidation processes for wastewater treatment: a review. Chemical Engineering Journal, 407: 127191

[75]

LuoY, WangX R, JiL L, Su Y (2009). EPR detection of hydroxyl radical generation and its interaction with antioxidant system in Carassius auratus exposed to pentachlorophenol. Journal of Hazardous Materials, 171(1–3): 1096–1102

[76]

Ma D, Yi H, Lai C, Liu X, Huo X, An Z, Li L, Fu Y, Li B, Zhang M. . (2021). Critical review of advanced oxidation processes in organic wastewater treatment. Chemosphere, 275: 130104

[77]

Ma H, Hua L, Lian K, Ma X. (2014). Adsorptive removal of trivalent chromium in aqueous solution using precipitate produced from aluminum tanning wastewater. Water, Air, and Soil Pollution, 225(5): 1956

[78]

Ma H, Wang Q, Hao Y, Zhu C, Chen X, Wang C, Yang Y. (2020). Fenton reaction induced in-situ redox and re-complexation of polyphenol-Cr complex and their products. Chemosphere, 250: 126214

[79]

Magalhaes F, Pereira M C, Botrel S E C, Fabris J D, Macedo W A, Mendonca R, Lago R M, Oliveira L C A. (2007). Cr-containing magnetites Fe3–xCrxO4: The role of Cr3+ and Fe2+ on the stability and reactivity towards H2O2 reactions. Applied Catalysis A: General, 332(1): 115–123

[80]

Mao B G, Sun P P, Jiang Y, Meng T, Guo D L, Qin J W, Cao M H. (2020). Identifying the transfer kinetics of adsorbed hydroxyl as a descriptor of alkaline hydrogen evolution reaction. Angewandte Chemie International Edition, 59(35): 15232–15237

[81]

Marinho B A, Cristóvão R O, Boaventura R A R, Vilar V J P. (2019). As(III) and Cr(VI) oxyanion removal from water by advanced oxidation/reduction processes: a review. Environmental Science and Pollution Research International, 26(3): 2203–2227

[82]

Miao Y C, Li Z H, Song Y J, Fan K, Guo J, Li R G, Shao M F. (2023). Surface active oxygen engineering of photoanodes to boost photoelectrochemical water and alcohol oxidation coupled with hydrogen production. Applied Catalysis B: Environmental, 323: 122147

[83]

MollahM Y, Morkovsky P, GomesJ A, KesmezM, PargaJ, CockeD L (2004). Fundamentals, present and future perspectives of electrocoagulation. Journal of Hazardous Materials, 114(1–3): 199–210

[84]

Mollah M Y A, Schennach R, Parga J R, Cocke D L. (2001). Electrocoagulation (EC)—science and applications. Journal of Hazardous Materials, 84(1): 29–41

[85]

NagK, BaseS N (1985). Chemistry of tetra- and pentavalent chromium. In: Nag K, Base S N, eds. Bond and Structure Models. Berlin: Springer, 153–197

[86]

ÖlmezT (2009). The optimization of Cr(VI) reduction and removal by electrocoagulation using response surface methodology. Journal of Hazardous Materials, 162(2–3): 1371–1378

[87]

Olmez-Hanci T, Arslan-Alaton I. (2013). Comparison of sulfate and hydroxyl radical based advanced oxidation of phenol. Chemical Engineering Journal, 224: 10–16

[88]

Pan C, Troyer L D, Catalano J G, Giammar D E. (2016). Dynamics of chromium(VI) removal from drinking water by iron electrocoagulation. Environmental Science & Technology, 50(24): 13502–13510

[89]

Patnaik S, Das K K, Mohanty A, Parida K. (2018). Enhanced photo catalytic reduction of Cr(VI) over polymer-sensitized g-C3N4/ZnFe2O4 and its synergism with phenol oxidation under visible light irradiation. Catalysis Today, 315: 52–66

[90]

Pattison D I, Lay P A, Davies M J. (2000). EPR studies of chromium(V) intermediates generated via reduction of chromium(VI) by DOPA and related catecholamines: potential role for oxidized amino acids in chromium-induced cancers. Inorganic Chemistry, 39(13): 2729–2739

[91]

Paździor K, Bilinska L, Ledakowicz S. (2019). A review of the existing and emerging technologies in the combination of AOPs and biological processes in industrial textile wastewater treatment. Chemical Engineering Journal, 376: 120597

[92]

PirroneN, Ghorab M F, DjellabiR, MessadiR (2013). Photo-reduction of Hexavalent Chromium in Aqueous Solution in the Presence of TiO2 as Semiconductor Catalyst. E3S Web of Conferences, 1: 25008-p.1–25008-p.4

[93]

Raebiger H, Lany S, Zunger A. (2008). Charge self-regulation upon changing the oxidation state of transition metals in insulators. Nature, 453(7196): 763–766

[94]

Rahmani A R, Hossieni E, Poormohammadi A. (2015). Removal of chromium(VI) from aqueous solution using electro-Fenton process. Environmental Processes, 2(2): 419–428

[95]

Ramakrishnaiah C R, Prathima B. (2012). Hexavalent chromium removal from industrial wastewater by chemical precipitation method. International Journal of Engineering Research and Industrial Applications, 2(2): 599–603

[96]

RamirezJ H, Maldonado-Hodar F J, Perez-CadenasA F, Moreno-CastillaC, Costa C A, MadeiraL M (2007). Azo-dye Orange II degradation by heterogeneous Fenton-like reaction using carbon-Fe catalysts. Applied Catalysis B: Environmental, 75(3–4): 312–323

[97]

Renu A M, Agarwal M, Singh K. (2017). Methodologies for removal of heavy metal ions from wastewater: an overview. Interdisciplinary Environmental Review, 18(2): 124–142

[98]

Ries H E Jr, Meyers B L. (1968). Flocculation mechanism-charge neutralization and bridging. Science, 160(3835): 1449–1450

[99]

Sharfan N, Shobri A, Anindria F A, Mauricio R, Tafsili M A B. (2018). Treatment of batik industry waste with a combination of electrocoagulation and photocatalysis. International Journal of Technology, 9(5): 936–943

[100]

Shi L, Wang T, Zhang H, Chang K, Meng X, Liu H, Ye J. (2015). An amine-functionalized iron(III) metal-organic framework as efficient visible-light photocatalyst for Cr(VI) reduction. Advanced Science (Weinheim, Baden-Wurttemberg, Germany), 2(3): 1500006

[101]

Shi X L, Mao Y, Knapton A D, Ding M, Rojanasakul Y, Gannett P M, Dalal N, Liu K J. (1994). Reaction of Cr(VI) with ascorbate and hydrogen-peroxide generates hydroxyl radicals and causes DNA-damage-role of a Cr(IV)-mediated Fenton-Like reaction. Carcinogenesis, 15(11): 2475–2478

[102]

Stearns D M, Wetterhahn K E. (1997). Intermediates produced in the reaction of chromium(VI) with dehydroascorbate cause single-strand breaks in plasmid DNA. Chemical Research in Toxicology, 10(3): 271–278

[103]

Strlic M, Kolar J, Selih V S, Kocar D, Pihlar B. (2003). A comparative study of several transition metals in Fenton-like reaction systems at circum-neutral pH. Acta Chimica Slovenica, 50(4): 619–632

[104]

Stylianou S, Simeonidis K, Mitrakas M, Zouboulis A, Ernst M, Katsoyiannis I A. (2018). Reductive precipitation and removal of Cr(VI) from groundwaters by pipe flocculation-microfiltration. Environmental Science and Pollution Research International, 25(13): 12256–12262

[105]

Sun D, Yang J, Chen F, Chen Z, Lv K. (2022a). Hollow nanospheres organized by ultra-small CuFe2O4/C subunits with efficient photo-Fenton-like performance for antibiotic degradation and Cr(VI) reduction. Catalysts, 12(7): 687

[106]

Sun X J, Ni X X, Wang X L, Xu D Y. (2022b). Preparation of zero-valent iron-based composite catalyst with red mud and scrap tire as starting materials for Fenton-like degradation of methyl blue. Surfaces and Interfaces, 31: 102053

[107]

Vander Griend D A, Golden J S, Arrington C A. (2002). Kinetics and mechanism of chromate reduction with hydrogen peroxide in base. Inorganic Chemistry, 41(26): 7042–7048

[108]

Wang L H, Jiang J, Ma J, Pang S Y, Zhang T. (2022). A review on advanced oxidation processes homogeneously initiated by copper(II). Chemical Engineering Journal, 427: 131721

[109]

Wang W L, Hu S X, Li L J, Gao W L, Cong R H, Yang T. (2017a). Octahedral-based redox molecular sieve M-PKU-1: isomorphous metal-substitution, catalytic oxidation of sec-alcohol and related catalytic mechanism. Journal of Catalysis, 352: 130–141

[110]

Wang X, Liang Y, An W, Hu J, Zhu Y, Cui W. (2017b). Removal of chromium(VI) by a self-regenerating and metal free g-C3N4/graphene hydrogel system via the synergy of adsorption and photo-catalysis under visible light. Applied Catalysis B: Environmental, 219: 53–62

[111]

Wang Y H, Wang X T, Ze H J, Zhang X G, Radjenovic P M, Zhang Y J, Dong J C, Tian Z Q, Li J F. (2021). Spectroscopic verification of adsorbed hydroxy intermediates in the bifunctional mechanism of the hydrogen oxidation reaction. Angewandte Chemie International Edition, 60(11): 5708–5711

[112]

Wang Z F, Shen Q Q, Xue J B, Guan R F, Li Q, Liu X G, Jia H S, Wu Y C. (2020). 3D hierarchically porous NiO/NF electrode for the removal of chromium(VI) from wastewater by electrocoagulation. Chemical Engineering Journal, 402: 126151

[113]

Watwe V S, Kulkarni S D, Kulkarni P S. (2021). Cr(VI)-mediated homogeneous Fenton oxidation for decolorization of methylene blue dye: Sludge free and pertinent to a wide pH range. ACS Omega, 6(41): 27288–27296

[114]

Xiang Q, Yu J, Wong P K. (2011). Quantitative characterization of hydroxyl radicals produced by various photocatalysts. Journal of Colloid and Interface Science, 357(1): 163–167

[115]

Xiao C, Li X, Li Q, Hu Y, Cheng J, Chen Y. (2022). Ni-doped FeC2O4 for efficient photo-Fenton simultaneous degradation of organic pollutants and reduction of Cr(VI): accelerated Fe(III)/Fe(II) cycle, enhanced stability and mechanism insight. Journal of Cleaner Production, 340: 130775

[116]

Xiao X, Sun Y, Sun W, Shen H, Zheng H, Xu Y, Zhao J, Wu H, Liu C. (2017). Advanced treatment of actual textile dye wastewater by Fenton-flocculation process. Canadian Journal of Chemical Engineering, 95(7): 1245–1252

[117]

Xie D, Chu S, Zhang S, Ivanets A, Zhang L, Su X. (2022). Facile synthesis of Cr-doped ferrite catalyst from Cr-containing electroplating sludge with activated persulfate for efficient degradation of tetracycline. Journal of Environmental Chemical Engineering, 10(6): 108805

[118]

Xie J Z, Ma J X, Zhao S X, Waite T D. (2021). Flow anodic oxidation: towards high-efficiency removal of aqueous contaminants by adsorbed hydroxyl radicals at 1.5 V vs SHE. Water Research, 200: 117259

[119]

XieL P, Fu F L, TangB (2012). Removal of chromium from CrEDTA synthetic wastewater using advanced Fenton-hydroxide precipitation process. Advanced Materials Research, 550–553: 2005–2008

[120]

Xue Y, Zheng S, Du H, Zhang Y, Jin W. (2017a). Cr(III)-induced electrochemical advanced oxidation processes for the V2O3 dissolution in alkaline media. Chemical Engineering Journal, 307: 518–525

[121]

Xue Y, Zheng S, Sun Z, Zhang Y, Jin W. (2017b). Alkaline electrochemical advanced oxidation process for chromium oxidation at graphitized multi-walled carbon nanotubes. Chemosphere, 183: 156–163

[122]

Xue Y D, Jin W, Du H, Zheng S L, Sun Z, Yan W Y, Zhang Y. (2016). Electrochemical Cr(III) oxidation and mobilization by in situ generated reactive oxygen species in alkaline solution. Journal of the Electrochemical Society, 163(8): H684–H689

[123]

Yang D Z, Li Q L, Tammina S K, Gao Z, Yang Y L. (2020). Cu-CDs/H2O2 system with peroxidase-like activities at neutral pH for the co-catalytic oxidation of o-phenylenediamine and inhibition of catalytic activity by Cr(III). Sensors and Actuators. B, Chemical, 319: 128273

[124]

Yang R, Chang Q Q, Li N, Yang H. (2022a). Synergistically enhanced activation of persulfate for efficient oxidation of organic contaminants using a microscale zero-valent aluminum/Fe-bearing clay composite. Chemical Engineering Journal, 433: 133682

[125]

Yang Z C, Shan C, Pignatello J J, Pan B C. (2022b). Mn(II) acceleration of the picolinic acid-assisted Fenton reaction: New insight into the role of manganese in homogeneous Fenton AOPs. Environmental Science & Technology, 56(10): 6621–6630

[126]

Ye Y, Jiang Z, Xu Z, Zhang X, Wang D, Lv L, Pan B. (2017). Efficient removal of Cr(III)-organic complexes from water using UV/Fe(III) system: negligible Cr(VI) accumulation and mechanism. Water Research, 126: 172–178

[127]

Ye Y, Shan C, Zhang X, Liu H, Wang D, Lv L, Pan B. (2018). Water decontamination from Cr(III)-organic complexes based on pyrite/H2O2: performance, mechanism, and validation. Environmental Science & Technology, 52(18): 10657–10664

[128]

Yin X, Liu W, Ni J. (2014). Removal of coexisting Cr(VI) and 4-chlorophenol through reduction and Fenton reaction in a single system. Chemical Engineering Journal, 248: 89–97

[129]

Yu H, Liu D, Wang H, Yu H, Yan Q, Ji J, Zhang J, Xing M. (2022). Singlet oxygen synergistic surface-adsorbed hydroxyl radicals for phenol degradation in CoP catalytic photo-Fenton. Chinese Journal of Catalysis, 43(10): 2678–2689

[130]

Zhang L, Lay P A. (1998). EPR spectroscopic studies on the formation of chromium(V) peroxo complexes in the reaction of chromium(VI) with hydrogen peroxide. Inorganic Chemistry, 37(8): 1729–1733

[131]

Zhang M H, Dong H, Zhao L, Wang D X, Meng D. (2019). A review on Fenton process for organic wastewater treatment based on optimization perspective. Science of the Total Environment, 670: 110–121

[132]

Zhang S, Quan X, Wang D. (2017a). Fluorescence microscopy image-analysis (FMI) for the characterization of interphase HO production originated by heterogeneous catalysis. Chemical Communications (Cambridge), 53(17): 2575–2577

[133]

Zhang S, Quan X, Zheng J F, Wang D. (2017b). Probing the interphase “HO zone” originated by carbon nanotube during catalytic ozonation. Water Research, 122: 86–95

[134]

Zhang X, Meng G, Hu J, Xiao W, Li T, Zhang L, Chen P. (2023). Electroreduction of hexavalent chromium using a porous titanium flow-through electrode and intelligent prediction based on a back propagation neural network. Frontiers of Environmental Science & Engineering, 17(8): 97

[135]

Zhao M, Wang X, Wang S, Gao M. (2023). Hydroxyl radical induced Cr flocculation via redox reaction: the extending application of heterogeneous advanced oxidation processes on Cr removal. Journal of Hazardous Materials, 452: 131282

[136]

Zhao Z W, Rush J D, Holcman J, Bielski B H J. (1995). The oxidation of chromium(III) by hydroxyl radical in alkaline-solution: a stopped-flow and pre-mix pulse-radiolysis study. Radiation Physics and Chemistry, 45(2): 257–263

[137]

Zhitkovich A. (2011). Chromium in drinking water: sources, metabolism, and cancer risks. Chemical Research in Toxicology, 24(10): 1617–1629

[138]

ZhongY H, Liang X L, HeZ S, TanW, ZhuJ X, YuanP, Zhu R L, HeH P (2014). The constraints of transition metal substitutions (Ti, Cr, Mn, Co and Ni) in magnetite on its catalytic activity in heterogeneous Fenton and UV/Fenton reaction: From the perspective of hydroxyl radical generation. Applied Catalysis B: Environmental, 150151: 612–618

[139]

Zhong Y H, Liang X L, Tan W, Zhong Y, He H P, Zhu J X, Yuan P, Jiang Z. (2013). A comparative study about the effects of isomorphous substitution of transition metals (Ti, Cr, Mn, Co and Ni) on the UV/Fenton catalytic activity of magnetite. Journal of Molecular Catalysis, A-Chemical, 372: 29–34

[140]

Zhou Q, Niu W, Li Y, Li X. (2020). Photoinduced Fenton-simulated reduction system based on iron cycle and carbon dioxide radicals production for rapid removal of Cr(VI) from wastewater. Journal of Cleaner Production, 258: 120790

[141]

Zhu J, Yu F, Meng J, Shao B, Dong H, Chu W, Cao T, Wei G, Wang H, Guan X. (2020). Overlooked role of Fe(IV) and Fe(V) in organic contaminant oxidation by Fe(VI). Environmental Science & Technology, 54(15): 9702–9710

[142]

Zhu Y P, Zhu R L, Xi Y F, Zhu J X, Zhu G Q, He H P. (2019). Strategies for enhancing the heterogeneous Fenton catalytic reactivity: a review. Applied Catalysis B: Environmental, 255: 117739

[143]

Zigah D, Rodriguez-Lopez J, Bard A J. (2012). Quantification of photoelectrogenerated hydroxyl radical on TiO2 by surface interrogation scanning electrochemical microscopy. Physical Chemistry Chemical Physics, 14(37): 12764–12772

RIGHTS & PERMISSIONS

Higher Education Press

AI Summary AI Mindmap
PDF (8955KB)

3352

Accesses

0

Citation

Detail

Sections
Recommended

AI思维导图

/