Sustainability assessment of seawater splitting: Prospects, challenges, and future directions

Hicham Meskher , Abebe Reda Woldu , Paul K. Chu , Fushen Lu , Liangsheng Hu

EcoEnergy ›› 2024, Vol. 2 ›› Issue (4) : 630 -651.

PDF (6708KB)
EcoEnergy ›› 2024, Vol. 2 ›› Issue (4) : 630 -651. DOI: 10.1002/ece2.68
REVIEW

Sustainability assessment of seawater splitting: Prospects, challenges, and future directions

Author information +
History +
PDF (6708KB)

Abstract

Seawater splitting is one of the desirable techniques for producing green hydrogen from the vast natural resource. Several reports about designing and fabricating efficient electrocatalysts to boost the oxygen evolution reaction and hydrogen evolution reaction have been published. However, they mainly focus on the electrodes, electrocatalysts, cost, and system stability. This article presents an overview of seawater splitting by highlighting the most challenging issues that complicate seawater electrolysis, such as durability, to guide future research in this important area. The strategy to launch life cycle assessments is described to evaluate the short and long-term impacts. Finally, the current challenges and prospective solutions are discussed.

Keywords

electrocatalysts / life cycle assessment / seawater splitting / sustainability

Cite this article

Download citation ▾
Hicham Meskher, Abebe Reda Woldu, Paul K. Chu, Fushen Lu, Liangsheng Hu. Sustainability assessment of seawater splitting: Prospects, challenges, and future directions. EcoEnergy, 2024, 2(4): 630-651 DOI:10.1002/ece2.68

登录浏览全文

4963

注册一个新账户 忘记密码

References

[1]

Huo J, Peng C. Depletion of natural resources and environmental quality: prospects of energy use, energy imports, and economic growth hindrances. Res Pol. 2023;86:104049.

[2]

M A, G PK. Hydrogen towards sustainable transition: a review of production, economic, environmental impact and scaling factors. Results Eng. 2023;20:101456.

[3]

Feng T, Xiong R, Huan P. Productive use of natural resources in agriculture: the main policy lessons. Res Pol. 2023;85:103793.

[4]

Araújo ODQF, Boa Morte IB, Borges CLT, Morgado CRV, De Medeiros JL. Beyond clean and affordable transition pathways: a review of issues and strategies to sustainable energy supply. Int J Electr Power Energy Syst. 2024;155:109544.

[5]

Peng Z, Zhang Q, Qi G, et al. Nanostructured Pt@RuO catalyst for boosting overall acidic seawater splitting. Chin J Struct Chem. 2023;43(1):100191.

[6]

Zhu J, Hu LS, Zhao P, Lee LYS, Wong KY. Recent advances in electrocatalytic hydrogen evolution using nanoparticles. Chem Rev. 2020;120(2):851-918.

[7]

Hassan IU, Naikoo GA, Salim H, et al. Advances in photochemical splitting of seawater over semiconductor nano-catalysts for hydrogen production: a critical review. J Ind Eng Chem. 2023;121:1-14.

[8]

Feng C, Chen M, Yang Z, et al. Electrocatalytic seawater splitting for hydrogen production: recent progress and future prospects. J Mater Sci Technol. 2023;162:203-226.

[9]

Huang Z, Reda Woldu A, Peng X, Chu PK, Tong QX, Hu L. Remarkably boosted water oxidation activity and dynamic stability at large-current-density of Ni(OH)2 nanosheet arrays by Fe ion association and underlying mechanism. Chem Eng J. 2023;477:147155.

[10]

Khatun S, Pal S, Sinha N, Das C, Ahmed T, Roy P. New age chloride shielding strategies for corrosion resistant direct seawater splitting. Chem Commun. 2023;59(31):4578-4599.

[11]

Wang X, Zhou X, Li C, et al. Asymmetric CoN3P1 trifunctional catalyst with tailored electronic structures enabling boosted activities and corrosion resistance in an uninterrupted seawater splitting system. Adv Mater. 2022;34(34):2204021.

[12]

Adisasmito S, Khoiruddin K, Sutrisna PD, Wenten IG, Siagian UWR. Bipolar membrane seawater splitting for hydrogen production: a review. ACS Omega. 2024;9(13):14704-14727.

[13]

Ng KH, Lai SY, Cheng CK, Cheng YW, Chong CC. Photocatalytic water splitting for solving energy crisis: myth, Fact or Busted? Chem Eng J. 2021;417:128847.

[14]

Xu R, Qu Y, Zhao Z, Wang Y, Li M, Zhou F. NiS protective layer for repelling chloride ion effectively for water oxidation on photocatalytic seawater splitting. ACS Appl Energy Mater. 2023;6(4):2618-2623.

[15]

Rafiq M, Huang ZL, Pi C, et al. Designing electrocatalysts for high-current-density freshwater/seawater splitting. Renewables. 2024;2(1):2-24.

[16]

Sun F, Qin J, Wang Z, et al. Energy-saving hydrogen production by chlorine-free hybrid seawater splitting coupling hydrazine degradation. Nat Commun. 2021;12(1):4182.

[17]

Liang J, Li Z, He X, et al. Electrocatalytic seawater splitting: nice designs, advanced strategies, challenges and perspectives. Mater Today. 2023;69:193-235.

[18]

Xu B, Liang J, Sun X, Xiong X. Designing electrocatalysts for seawater splitting: surface/interface engineering toward enhanced electrocatalytic performance. Green Chem. 2023;25(10):3767-3790.

[19]

Logeshwaran N, Vijayapradeep S, Kim AR, et al. Study of engineering electronic structure modulated non-noble metal oxides for scaled-up alkaline blend seawater splitting. J Energy Chem. 2023;86:167-179.

[20]

Meskher H, Belhaouari SB, Deshmukh K, Hussain CM, Sharifianjazi F. A magnetite composite of molecularly imprinted polymer and reduced graphene oxide for sensitive and selective electrochemical detection of catechol in water and milk samples: an artificial neural network (ANN) application. J Electrochem Soc. 2023;170(4):047502.

[21]

Tewary A, Mandal S, Alam Z, Sinha ASK, Ojha U. Scalable green synthesis of Ni3N-encapsulated NC-layered FeOOH heterostructures: bifunctional electrodes for sustainable electrocatalytic seawater splitting. ACS Sustain Chem Eng. 2023;11(17):6556-6566.

[22]

Kuang Y, Kenney MJ, Meng Y, et al. Solar-driven, highly sustained splitting of seawater into hydrogen and oxygen fuels. Proc Natl Acad Sci USA. 2019;116(14):6624-6629.

[23]

Yang S, Wei H, Xia H, et al. Bimetallic interface of RuCu hollow nanostructures combined with B4C for enhancing electrocatalysis on nitrate reduction. ACS Sustain Chem Eng. 2024;12(8):3355-3363.

[24]

Kanti HS, Kim H, Meskher H, et al. Lithium-free redox flow batteries: challenges and future prospective for safe and efficient energy storage. Batter Supercaps. 2024;7(7):e202400100.

[25]

Hoa VH, Austeria M, Thi Dao H, Mai M, Kim DH. Dual-phase cobalt phosphide/phosphate hybrid interactions via iridium nanocluster interfacial engineering toward efficient overall seawater splitting. Appl Catal B Environ. 2023;327:122467.

[26]

Zhuang L, Li S, Li J, et al. Recent advances on hydrogen evolution and oxygen evolution catalysts for direct seawater splitting. Coatings. 2022;12(5):659.

[27]

Marimuthu T, Yuvakkumar R, Senthil Kumar P, et al. Cost effective and facile low temperature hydrothermal fabrication of Cu2S thin films for hydrogen evolution reaction in seawater splitting. Int J Hydrogen Energy. 2022;47(72):30819-30829.

[28]

Lei F, Ma X, Shao X, Fang Z, Wang Y, Hao W. Reasonable regulation of flexible sulfur-based bifunctional catalytic electrodes for efficient seawater splitting. Inorg Chem Front. 2024;11(7):2152-2163.

[29]

Qayum A, Peng X, Yuan J, et al. Highly durable and efficient Ni-FeOx/FeNi3 electrocatalysts synthesized by a facile in situ combustion-based method for overall water splitting with large current densities. ACS Appl Mater Interfaces. 2022;14(24):27842-27853.

[30]

Lu Z, Yang H, Liu Q, et al. Nb2AlC MAX nanosheets supported Ru nanocrystals as efficient catalysts for boosting pH-universal hydrogen production. Small. 2024;20(17):2305434.

[31]

Hausmann JN, Schlögl R, Menezes PW, Driess M. Is direct seawater splitting economically meaningful? Energy Environ Sci. 2021;14(7):3679-3685.

[32]

Meskher H, Achi F. Electrochemical sensing systems for the analysis of catechol and hydroquinone in the aquatic environments: a critical review. Crit Rev Anal Chem. 2024;54(5):1354-1367.

[33]

Tong W, Forster M, Dionigi F, et al. Electrolysis of low-grade and saline surface water. Nat Energy. 2020;5(5):367-377.

[34]

Ju S, Liu Y, Pei M, et al. Amorphization-induced abundant coordinatively unsaturated Ni active sites in NiCo(OH)2 for boosting catalytic OER and HER activities at high current densities for water-electrolysis. J Colloid Interface Sci. 2024;653:1704-1714.

[35]

Fei H, Liu R, Liu T, et al. Direct seawater electrolysis: from catalyst design to device applications. Adv Mater. 2024;36(17):2309211.

[36]

Li X, Hao X, Abudula A, Guan G. Nanostructured catalysts for electrochemical water splitting: current state and prospects. J Mater Chem A. 2016;4(31):11973-12000.

[37]

Liu X, Chi J, Mao H, Wang L. Principles of designing electrocatalyst to boost reactivity for seawater splitting. Adv Energy Mater. 2023;13(31):2301438.

[38]

Haq TU, Haik Y. Strategies of anode design for seawater electrolysis: recent development and future perspective. Small Sci. 2022;2(9):2200030.

[39]

Li P, Zhao S, Huang Y, et al. Corrosion resistant multilayered electrode comprising Ni3N nanoarray overcoated with NiFe-phytate complex for boosted oxygen evolution in seawater electrolysis. Adv Energy Mater. 2024;14(8):2303360.

[40]

Dinh CT, Jain A, De Arquer FPG, et al. Multi-site electrocatalysts for hydrogen evolution in neutral media by destabilization of water molecules. Nat Energy. 2018;4(2):107-114.

[41]

Dionigi F, Reier T, Pawolek Z, Gliech M, Strasser P. Design criteria, operating conditions, and nickel-iro. hydroxide catalyst materials for selective seawater electrolysis. ChemSusChem. 2016;9(9):962-972.

[42]

Liu G. Oxygen evolution reaction electrocatalysts for seawater splitting: a review. J Electroanal Chem. 2022;923:116805.

[43]

Dresp S, Dionigi F, Klingenhof M, Strasser P. Direct electrolytic splitting of seawater: opportunities and challenges. ACS Energy Lett. 2019;4(4):933-942.

[44]

Menzel N, Ortel E, Mette K, Kraehnert R, Strasser P. Dimensionally stable Ru/Ir/TiO2-anodes with tailored mesoporosity for efficient electrochemical chlorine evolution. ACS Catal. 2013;3(6):1324-1333.

[45]

Wang T, Tao L, Zhu X, et al. Combined anodic and cathodic hydrogen production from aldehyde oxidation and hydrogen evolution reaction. Nat Catal. 2021;5(1):66-73.

[46]

Abe H, Murakami A, Tsunekawa S, et al. Selective catalyst for oxygen evolution in neutral brine electrolysis: an oxygen-deficient manganese oxide film. ACS Catal. 2021;11(11):6390-6397.

[47]

Qin Z, Liu W, Que W, et al. Non-noble-metal electrocatalysts for oxygen evolution reaction toward seawater splitting: a review. ChemPhysMater. 2023;2(3):185-196.

[48]

China’s green hydrogen new era: a 2030 renewable hydrogen 100 GW roadmap. https://rmi.org/wpcontent/uploads/dlm_uploads/2022/09/china_green_hydrogen_new_era_renewable_hydrogen_roadmap.pdf

[49]

Varras G, Chalaris M. Critical review of hydrogen production via seawater electrolysis and desalination: evaluating current practices. J Electrochem Energy Convers Storage. 2024;21(4):044001.

[50]

He W, Li X, Tang C, et al. Materials design and system innovation for direct and indirect seawater electrolysis. ACS Nano. 2023;17(22):22227-22239.

[51]

Veroneau SS, Hartnett AC, Thorarinsdottir AE, Nocera DG. Direct seawater splitting by forward osmosis coupled to water electrolysis. ACS Appl Energy Mater. 2022;5(2):1403-1408.

[52]

Ma X, Liang R, Wang Y, et al. Large-area, flexible bimetallic phosphorus-based electrodes for prolong-stable industrial grade overall seawater splitting. Chem Eng J. 2024;488:150624.

[53]

Jin H, Xu J, Liu H, et al. Emerging materials and technologies for electrocatalytic seawater splitting. Sci Adv. 2023;9(42):eadi7755.

[54]

Liu H, Shen W, Jin H, et al. High-performance alkaline seawater electrolysis with anomalous chloride promoted oxygen evolution reaction. Angew Chem Int Ed. 2023;62(46):e202311674.

[55]

Dang VH, Nguyen TA, Le MV, Nguyen DQ, Wang YH, Wu JCS. Photocatalytic hydrogen production from seawater splitting: current status, challenges, strategies and prospective applications. Chem Eng J. 2024;484:149213.

[56]

Zhang H, Xie X. Evaluating the seawater desalination potential of an air-seawater system: through thermodynamic analysis and simulation of an indirect evaporative cooling desalination system. Appl Therm Eng. 2024;238:121950.

[57]

Yu X, Yu ZY, Zhang XL, et al. “Superaerophobic” nickel phosphide nanoarray catalyst for efficient hydrogen evolution at ultrahigh current densities. J Am Chem Soc. 2019;141(18):7537-7543.

[58]

Lu Z, Yang H, Qi G, et al. Efficient and stable pH-universal water electrolysis catalyzed by N-doped hollow carbon confined RuIrOx nanocrystals. Small. 2024;20(16):2308841.

[59]

Yu L, Wu L, McElhenny B, et al. Ultrafast room-temperature synthesis of porous S-doped Ni/Fe (oxy)hydroxide electrodes for oxygen evolution catalysis in seawater splitting. Energy Environ Sci. 2020;13(10):3439-3446.

[60]

Yu L, Zhu Q, Song S, et al. Non-noble metal-nitride based electrocatalysts for high-performance alkaline seawater electrolysis. Nat Commun. 2019;10(1):5106.

[61]

Wang H, Chen L, Tan L, et al. Electrodeposition of NiFe-layered double hydroxide layer on sulfur-modified nickel molybdate nanorods for highly efficient seawater splitting. J Colloid Interface Sci. 2022;613:349-358.

[62]

Ko Y, Park J, Mo J, et al. Layer-by-Layer assembly-based electrocatalytic fibril electrodes enabling extremely low overpotentials and stable operation at 1 A cm−2 in water-splitting reaction. Adv Funct Mater. 2021;31(35):2102530.

[63]

Wang C, Zhai P, Xia M, et al. Engineering lattice oxygen activation of iridium clusters stabilized on amorphous bimetal borides array for oxygen evolution reaction. Angew Chem Int Ed. 2021;60(52):27126-27134.

[64]

Wu Y, Zhao Y, Zhai P, et al. Triggering lattice oxygen activation of single-atomic Mo sites anchored on Ni-Fe oxyhydroxides nanoarrays for electrochemical water oxidation. Adv Mater. 2022;34(29):2202523.

[65]

Yang H, Li F, Zhan S, et al. Intramolecular hydroxyl nucleophilic attack pathway by a polymeric water oxidation catalyst with single cobalt sites. Nat Catal. 2022;5(5):414-429.

[66]

Fu C, Hao W, Fan J, et al. Fabrication of ultra-durable and flexible NiPx-based electrode toward high-efficient alkaline seawater splitting at industrial grade current density. Small. 2023;19(11):2205689.

[67]

Luo Y, Zhang Z, Chhowalla M, Liu B. Recent advances in design of electrocatalysts for high-current-density water splitting. Adv Mater. 2022;34(16):2108133.

[68]

Dionigi F, Zeng Z, Sinev I, et al. In-situ structure and catalytic mechanism of NiFe and CoFe layered double hydroxides during oxygen evolution. Nat Commun. 2020;11(1):2522.

[69]

Huang ZF, Song J, Du Y, et al. Chemical and structural origin of lattice oxygen oxidation in Co-Zn oxyhydroxide oxygen evolution electrocatalysts. Nat Energy. 2019;4(4):329-338.

[70]

Zhai P, Wang C, Zhao Y, et al. Regulating electronic states of nitride/hydroxide to accelerate kinetics for oxygen evolution at large current density. Nat Commun. 2023;14(1):1873.

[71]

Zhang H, Luo Y, Chu PK, et al. Recent advances in non-noble metal-based bifunctional electrocatalysts for overall seawater splitting. J Alloys Compd. 2022;922:166113.

[72]

Gao FY, Yu PC, Gao MR. Seawater electrolysis technologies for green hydrogen production: challenges and opportunities. Curr Opin Chem Eng. 2022;36:100827.

[73]

Shen LW, Wang Y, Shen L, et al. Ruthenium nanoparticles decorated with surface hydroxyl and borate species boost overall seawater splitting via increased hydrophilicity. Energy Environ Sci. 2024;17(11):3888-3897.

[74]

Muthurasu A, Ko TH, Kim TW, Chhetri K, Kim HY. Interfacial electronic modification of nickel phosphide via iron doping: an efficient bifunctional catalyst for water/seawater splitting. Adv Funct Mater. 2024:2404254.

[75]

Jin H, Liu X, Vasileff A, et al. Single-crystal nitrogen-rich two-dimensional MO5N6 nanosheets for efficient and stable seawater splitting. ACS Nano. 2018;12(12):12761-12769.

[76]

Ma YY, Wu CX, Feng XJ, et al. Highly efficient hydrogen evolution from seawater by a low-cost and stable CoMoP@C electrocatalyst superior to Pt/C. Energy Environ Sci. 2017;10(3):788-798.

[77]

Niu X, Tang Q, He B, Yang P. Robust and stable ruthenium alloy electrocatalysts for hydrogen evolution by seawater splitting. Electrochim Acta. 2016;208:180-187.

[78]

Liu T, Liu H, Wu X, et al. Molybdenum carbide/phosphide hybrid nanoparticles embedded P, N co-doped carbon nanofibers for highly efficient hydrogen production in acidic, alkaline solution and seawater. Electrochim Acta. 2018;281:710-716.

[79]

Li M, Qian Y, Du J, et al. CuS nanosheets decorated with CoS2 nanoparticles as an efficient electrocatalyst for enhanced hydrogen evolution at all pH values. ACS Sustain Chem Eng. 2019;7(16):14016-14022.

[80]

Fan M, Gao R, Zou YC, et al. An efficient nanostructured copper(I) sulfide-based hydrogen evolution electrocatalyst at neutral pH. Electrochim Acta. 2016;215:366-373.

[81]

Liu SQ, Wen HR, Ying-Guo, et al. Amorphous Ni(OH)2 encounter with crystalline CuS in hollow spheres: a mesoporous nano-shelled heterostructure for hydrogen evolution electrocatalysis. Nano Energy. 2018;44:7-14.

[82]

Huang X, Liang R, Zhang Y, Fan J, Hao W. Matrix-type bismuth-modulated copper-sulfur electrode using local photothermal effect strategy for efficient seawater splitting. J Colloid Interface Sci. 2024;660:823-833.

[83]

Kashinath L. Microwave-hydrothermal synthesis of copper sulphide nanorods embedded on graphene sheets as an efficient electrocatalyst for excellent hydrogen evolution reaction. Fuel. 2021;291:120143.

[84]

Marimuthu T, Yuvakkumar R, Ravi G, et al. One-step fabrication of copper sulfide catalysts for HER in natural seawater and their bifunctional properties in freshwater splitting. Fuel. 2022;322:124073.

[85]

Yu L, Wu L, Song S, et al. Hydrogen generation from seawater electrolysis over a sandwich-like NiCoN|NixP|NiCoN microsheet array catalyst. ACS Energy Lett. 2020;5(8):2681-2689.

[86]

Zhao J, Cai L, Li H, Shi X, Zheng X. Stabilizing silicon photocathodes by solution-deposited Ni-Fe layered double hydroxide for efficient hydrogen evolution in alkaline media. ACS Energy Lett. 2017;2(9):1939-1946.

[87]

Zhang H, Ding Q, He D, et al. A p-Si/NiCoSex core/shell nanopillar array photocathode for enhanced photoelectrochemical hydrogen production. Energy Environ Sci. 2016;9(10):3113-3119.

[88]

Vanka S, Zhou B, Awni RA, et al. InGaN/Si double-junction photocathode for unassisted solar water splitting. ACS Energy Lett. 2020;5(12):3741-3751.

[89]

Li J, Ma B, Wang H, Zhu Y, Gu Y, Jing D. A novel photovoltaic-thermal system based on spectral splitting of nanoparticle suspensions for simultaneous hydrogen production and seawater desalination. Energy Convers Manag. 2024;314:118670.

[90]

Liu K, Gao X, Liu C, et al. Energy-Saving hydrogen production by seawater splitting coupled with PET plastic upcycling. Adv Energy Mater. 2024;14(17):2304065.

[91]

Znati S, Wharwood J, Tezanos KG, Li X, Mohseni PK. Metal-assisted chemical etching beyond Si: applications to III-V compounds and wide-bandgap semiconductors. Nanoscale. 2024;16(23):10901-10946.

[92]

Singh D, Kumawat S, Saini A, et al. Water splitting via electrocatalysis and photocatalysis: engineering stumbling blocks and advancements. Int J Hydrogen Energy. 2024;68:867-884.

[93]

Das B, Devi M, Dhar SS. Understanding the fundamentals and classifications of scalable solar hydrogen production. ACS Symp Ser. 2024:91-113.

[94]

Dong WJ, Xiao Y, Yang KR, et al. Pt nanoclusters on GaN nanowires for solar-asssisted seawater hydrogen evolution. Nat Commun. 2023;14(1):179.

[95]

Kawde A, Annamalai A, Amidani L, et al. Photo-electrochemical hydrogen production from neutral phosphate buffer and seawater using micro-structured p-Si photo-electrodes functionalized by solution-based methods. Sustain Energy Fuels. 2018;2(10):2215-2223.

[96]

Hu S, Lewis NS, Ager JW, Yang J, McKone JR, Strandwitz NC. Thin-film materials for the protection of semiconducting photoelectrodes in solar-fuel generators. J Phys Chem C. 2015;119(43):24201-24228.

[97]

Morales-Guio CG, Tilley SD, Vrubel H, Grätzel M, Hu X. Hydrogen evolution from a copper(I) oxide photocathode coated with an amorphous molybdenum sulphide catalyst. Nat Commun. 2014;5(1):3059.

[98]

Vanka S, Sun K, Zeng G, et al. Long-term stability studies of a semiconductor photoelectrode in three-electrode configuration. J Mater Chem A. 2019;7(48):27612-27619.

[99]

Xiao Y, Vanka S, Pham TA, et al. Crystallographic effects of GaN nanostructures in photoelectrochemical reaction. Nano Lett. 2022;22(6):2236-2243.

[100]

Dong WJ, Navid IA, Xiao Y, et al. Bi catalysts supported on GaN nanowires toward efficient photoelectrochemical CO2 reduction. J Mater Chem A. 2022;10(14):7869-7877.

[101]

Wang K, Qiu J, Wu Z, et al. Wafer-level GaN-based nanowires photocatalyst for water splitting. Chin Chem Lett. 2022:109993.

[102]

Lan H, Deng J, Zhong J. Boosting the performance of hematite photoanodes for solar water oxidation by synergistic W-incorporation and Zr-passivation. Int J Hydrogen Energy. 2019;44(31):16436-16442.

[103]

Thakur A, Ghosh D, Devi P, Kim KH, Kumar P. Current progress and challenges in photoelectrode materials for the production of hydrogen. Chem Eng J. 2020;397:125415.

[104]

Shirasaki Y, Tsuneki T, Ota Y, et al. Development of membrane reformer system for highly efficient hydrogen production from natural gas. Int J Hydrogen Energy. 2009;34(10):4482-4487.

[105]

Bartels JR, Pate MB, Olson NK. An economic survey of hydrogen production from conventional and alternative energy sources. Int J Hydrogen Energy. 2010;35(16):8371-8384.

[106]

Nikolaidis P, Poullikkas A. A comparative overview of hydrogen production processes. Renew Sustain Energy Rev. 2017;67:597-611.

[107]

Li J, Wei YM, Liu L, Li X, Yan R. The carbon footprint and cost of coal-based hydrogen production with and without carbon capture and storage technology in China. J Clean Prod. 2022;362:132514.

[108]

Liu H, Liu S. Life cycle energy consumption and GHG emissions of hydrogen production from underground coal gasification in comparison with surface coal gasification. Int J Hydrogen Energy. 2021;46(14):9630-9643.

[109]

Rafique M, Mubashar R, Irshad M, et al. A comprehensive study on methods and materials for photocatalytic water splitting and hydrogen production as a renewable energy resource. J Inorg Organomet Polym Mater. 2020;30(10):3837-3861.

[110]

Li R. Latest progress in hydrogen production from solar water splitting via photocatalysis, photoelectrochemical, and photovoltaic-photoelectrochemical solutions. Chin J Catal. 2017;38(1):5-12.

[111]

Fajrina N, Tahir M. A critical review in strategies to improve photocatalytic water splitting towards hydrogen production. Int J Hydrogen Energy. 2019;44(2):540-577.

[112]

Mohamed HH. Green processes and sustainable materials for renewable energy production via water splitting. In: Sustainable Materials and Green Processing for Energy Conversion;2022:169-212.

[113]

Tang J, Liu T, Miao S, Cho Y. Emerging energy harvesting technology for electro/photo-catalytic water splitting application. Catalysts. 2021;11(1):142.

[114]

Chen Z, Jaramillo TF, Deutsch TG, et al. Accelerating materials development for photoelectrochemical hydrogen production: standards for methods, definitions, and reporting protocols. J Mater Res. 2010;25(1):3-16.

[115]

Li J, Yu T, Wang K, et al. Multiscale engineering of nonprecious metal electrocatalyst for realizing ultrastable seawater splitting in weakly alkaline solution. Adv Sci. 2022;9(25):2202387.

[116]

Huang ZL, Pi C, Tan Z, et al. Boosting alkaline hydrogen evolution reaction kinetics by a local electric field created by polarization of CeO2(100). Int J Hydrogen Energy. 2024;49:75-86.

[117]

Li H, Tang Q, He B, Yang P. Robust electrocatalysts from an alloyed Pt-Ru-M (M = Cr, Fe, Co, Ni, Mo)-decorated Ti mesh for hydrogen evolution by seawater splitting. J Mater Chem A. 2016;4(17):6513-6520.

[118]

Zhang Q, Zhao X, Miao X, Yang W, Wang C, Pan Q. ZIF-L-Co@carbon fiber paper composite derived Co/Co3O4@C electrocatalyst for ORR in alkali/acidic media and overall seawater splitting. Int J Hydrogen Energy. 2020;45(58):33028-33036.

[119]

Hu M, Chen H, Liu B, et al. Coupling ceria with dual-phased molybdenum carbides for efficient and stable hydrogen evolution electrocatalysis at large-current-density in freshwater and seawater. Appl Catal B Environ. 2022;317:121774.

[120]

Ma W, Li D, Liao L, et al. High-performance bifunctional porous iron-rich phosphide/nickel nitride heterostructures for alkaline seawater splitting. Small. 2023;19(19):2207082.

[121]

Zhuang L, Li J, Wang K, Li Z, Zhu M, Xu Z. Structural buffer engineering on metal oxide for long-term stable seawater splitting. Adv Funct Mater. 2022;32(25):2201127.

[122]

Wu L, Yu L, Zhang F, et al. Heterogeneous bimetallic phosphide Ni2P-Fe2P as an efficient bifunctional catalyst for water/seawater splitting. Adv Funct Mater. 2021;31(1):2006484.

[123]

Sarno M, Ponticorvo E, Scarpa D. Active and stable graphene supporting trimetallic alloy-based electrocatalyst for hydrogen evolution by seawater splitting. Electrochem Commun. 2020;111:106647.

[124]

Li Y, Xin T, Cao Z, Zheng W, He P, Lee LYS. Optimized transition metal phosphides for direct seawater electrolysis: current trends. ChemSusChem. 2024;17(15):e202301926.

[125]

Feng S, Yu Y, Li J, et al. Recent progress in seawater electrolysis for hydrogen evolution by transition metal phosphides. Catal Commun. 2022;162:106382.

[126]

Jadhav AR, Kumar A, Lee J, et al. Stable complete seawater electrolysis by using interfacial chloride ion blocking layer on catalyst surface. J Mater Chem A. 2020;8(46):24501-24514.

[127]

Dresp S, Dionigi F, Loos S, et al. Direct electrolytic splitting of seawater: activity, selectivity, degradation, and recovery studied from the molecular catalyst structure to the electrolyzer cell level. Adv Energy Mater. 2018;8(22):1800338.

[128]

Hashim PK, Bergueiro J, Meijer EW, Aida T. Supramolecular polymerization: a conceptual expansion for innovative materials. Prog Polym Sci. 2020;105:101250.

[129]

Keijer T, Bouwens T, Hessels J, Reek JNH. Supramolecular strategies in artificial photosynthesis. Chem Sci. 2021;12(1):50-70.

[130]

Kumaravel S, Kim E, Kale BB, Adhikari A, Patel R, Kundu S. Recent developments in conductive polymer-based electro-/photoelectrocatalytic materials for effective hydrogen/oxygen evolution reactions: a review. ChemElectroChem. 2022;9(19):e202200724.

[131]

Ghosh AB, Basak S, Bandyopadhyay A. Polymer based functional materials: a new generation photo-active candidate for electrochemical application. Electroanalysis. 2022;34(5):773-786.

[132]

Shi Y, Yu Y, Yu Y, Huang Y, Zhao B, Zhang B. Boosting photoelectrochemical water oxidation activity and stability of Mo-doped BiVO4 through the uniform assembly coating of NiFe-phenolic networks. ACS Energy Lett. 2018;3(7):1648-1654.

[133]

Miao J, Lin C, Yuan X, et al. Supramolecular catalyst with [FeCl4] unit boosting photoelectrochemical seawater splitting via water nucleophilic attack pathway. Nat Commun. 2024;15(1):2023.

[134]

Lu J, Shi Y, Chen Z, et al. Photothermal effect of carbon dots for boosted photothermal-assisted photocatalytic water/seawater splitting into hydrogen. Chem Eng J. 2023;453:139834.

[135]

Ghouri ZK, Hughes DJ, Ahmed K, et al. Nanoengineered, Pd-doped Co@C nanoparticles as an effective electrocatalyst for OER in alkaline seawater electrolysis. Sci Rep. 2023;13(1):20866.

[136]

Zhu X, Guo F, Pan J, et al. Fabrication of visible-light-response face-contact ZnSnO3@g-C3N4 core-shell heterojunction for highly efficient photocatalytic degradation of tetracycline contaminant and mechanism insight. J Mater Sci. 2021;56(6):4366-4379.

[137]

Che H, Gao X, Chen J, Hou J, Ao Y, Wang P. Iodide-Induced fragmentation of polymerized hydrophilic carbon nitride for high-performance quasi-homogeneous photocatalytic H2O2 production. Angew Chem Int Ed. 2021;60(48):25546-25550.

[138]

Guo F, Huang X, Chen Z, et al. Construction of Cu3P-ZnSnO3-g-C3N4 p-n-n heterojunction with multiple built-in electric fields for effectively boosting visible-light photocatalytic degradation of broad-spectrum antibiotics. Sep Purif Technol. 2021;265:118477.

[139]

Li S, Peng Y, Hu C, Chen Z. Self-assembled synthesis of benzene-ring-grafted g-C3N4 nanotubes for enhanced photocatalytic H2 evolution. Appl Catal B Environ. 2020;279:119401.

[140]

Guo F, Chen Z, Huang X, et al. Ternary Ni2P/Bi2MoO6/g-C3N4 composite with Z-scheme electron transfer path for enhanced removal broad-spectrum antibiotics by the synergistic effect of adsorption and photocatalysis. Chin J Chem Eng. 2022;44:157-168.

[141]

Shi W, Sun W, Liu Y, et al. A self-sufficient photo-Fenton system with coupling in-situ production H2O2 of ultrathin porous g-C3N4 nanosheets and amorphous FeOOH quantum dots. J Hazard Mater. 2022;436:129141.

[142]

Sun X, Shi Y, Lu J, Shi W, Guo F. Template-free self-assembly of three-dimensional porous graphitic carbon nitride nanovesicles with size-dependent photocatalytic activity for hydrogen evolution. Appl Surf Sci. 2022;606:154841.

[143]

Cai M, Wu Z, Li Z, et al. Greenhouse-inspired supra-photothermal CO2 catalysis. Nat Energy. 2021;6(8):807-814.

[144]

He Y, Hu Y, Zhu Z, et al. High-performance multidimensional-structured N-doped nickel modulated MO2N/FeOxNy bifunctional electrocatalysts for efficient alkaline seawater splitting. Chem Eng J. 2024;489:151348.

[145]

Shen X, Li H, Ma T, et al. Construction of heterojunction-rich metal nitrides porous nanosheets electrocatalyst for alkaline water/seawater splitting at large current density. Small. 2024;20(30):2310535.

[146]

Osman AI, Ayati A, Krivoshapkin P, et al. Coordination-driven innovations in low-energy catalytic processes: advancing sustainability in chemical production. Coord Chem Rev. 2024;514:215900.

[147]

Huang ZL, Woldu AR, et al. Remarkably boosted water oxidation activity and dynamic stability at large-current-density of Ni(OH)2 nanosheet arrays by Fe ion association and underlying mechanism. Chem Eng J. 2023;477:147155.

[148]

Hu X, Zhang S, Sun J, et al. 2D Fe-containing cobalt phosphide/cobalt oxide lateral heterostructure with enhanced activity for oxygen evolution reaction. Nano Energy. 2019;56:109-117.

[149]

Huang ZL, Zhu SQ, Duan Y, et al. Insights into ionic association boosting water oxidation activity and dynamic stability. J Energy Chem. 2024;89:99-109.

[150]

Liu P, Liu Y, Wang K, et al. Revealing the role of electrode potential micro-environments in single Mn atoms for carbon dioxide and oxygen electrolysis. Nano Res. 2024;17(9):7957-7966.

[151]

Ros C, Murcia-López S, Garcia X, et al. Facing seawater splitting challenges by regeneration with Ni – Mo – Fe bifunctional electrocatalyst for hydrogen and oxygen evolution. ChemSusChem. 2021;14(14):2872-2881.

[152]

Zhao Z, Sun J, Li Z, et al. Rapid synthesis of efficient Mo-based electrocatalyst for the hydrogen evolution reaction in alkaline seawater with 11.28% solar-to-hydrogen efficiency. J Mater Chem A. 2023;11(19):10346-10359.

[153]

Su J, Yang Y, Xia G, Chen J, Jiang P, Chen Q. Ruthenium-cobalt nanoalloys encapsulated in nitrogen-doped graphene as active electrocatalysts for producing hydrogen in alkaline media. Nat Commun. 2017;8(1):14969.

[154]

Li JS, Huang MJ, Chen XN, et al. Synergistically enhanced hydrogen evolution reaction by ruthenium nanoparticles dispersed on N-doped carbon hollow nanospheres. Chem Commun. 2020;56(50):6802-6805.

[155]

Dresp S, Ngo Thanh T, Klingenhof M, Brückner S, Hauke P, Strasser P. Efficient direct seawater electrolysers using selective alkaline NiFe-LDH as OER catalyst in asymmetric electrolyte feeds. Energy Environ Sci. 2020;13(6):1725-1729.

[156]

Xu X, Lu Y, Shi J, et al. Corrosion-resistant cobalt phosphide electrocatalysts for salinity tolerance hydrogen evolution. Nat Commun. 2023;14(1):7708.

[157]

Ismail H, Hanafiah MM. Discovering opportunities to meet the challenges of an effective waste electrical and electronic equipment recycling system in Malaysia. J Clean Prod. 2019;238:117927.

RIGHTS & PERMISSIONS

2024 The Author(s). EcoEnergy published by John Wiley & Sons Australia, Ltd on behalf of China Chemical Safety Association.

AI Summary AI Mindmap
PDF (6708KB)

311

Accesses

0

Citation

Detail

Sections
Recommended

AI思维导图

/