Journal of Inorganic Materials, Volume. 39, Issue 11, 1254(2024)

3D Core-shell Structured NiMoO4@CoFe-LDH Nanorods: Performance of Efficient Oxygen Evolution Reaction and Overall Water Splitting

Quanxin YUE1...2,3, Ruihua GUO1,2,3,*, Ruifen WANG1,2,3, Shengli AN1,2,3, Guofang ZHANG1, and Lili GUAN12 |Show fewer author(s)
Author Affiliations
  • 11. School of Materials Science and Engineering, Inner Mongolia University of Science & Technology, Baotou 014010, China
  • 22. Inner Mongolia Key Laboratory of Advanced Ceramic Materials and Devices, Inner Mongolia University of Science & Technology, Baotou 014010, China
  • 33. Key Laboratory of Green Extraction & Efficient Utilization of Light Rare-Earth Resources, Ministry of Education, Inner Mongolia University of Science & Technology, Baotou 014010, China
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    References(74)

    [1] G LAGIOIA, M P SPINELLI, V AMICARELLI. Blue and green hydrogen energy to meet European Union decarbonisation objectives. an overview of perspectives and the current state of affairs. International Journal of Hydrogen Energy, 1304(2023).

    [2] V A PANCHENKO, Y V DAUS, A A KOVALEV et al. Prospects for the production of green hydrogen: review of countries with high potential. International Journal of Hydrogen Energy, 4551(2023).

    [3] X LI, C J RAORANE, C XIA et al. Latest approaches on green hydrogen as a potential source of renewable energy towards sustainable energy: spotlighting of recent innovations, challenges, and future insights. Fuel, 126684(2023).

    [4] F QURESHI, M YUSUF, M A KHAN et al. A state-of-the-art review on the latest trends in hydrogen production, storage, and transportation techniques. Fuel, 127574(2023).

    [5] A E KARACA, I DINCER. Development of a new photoelectrochemical system for clean hydrogen production and a comparative environmental impact assessment with other production methods. Chemosphere, 139367(2023).

    [6] J JAYAPRABAKAR, N S S HARI, M BADREENATH et al. Nano materials for green hydrogen production: technical insights on nano material selection, properties, production routes and commercial applications. International Journal of Hydrogen Energy, 674(2024).

    [7] P HOTA, A DAS, D K MAITI. A short review on generation of green fuel hydrogen through water splitting. International Journal of Hydrogen Energy, 523(2023).

    [8] J M VAN DER ZALM, J QUINTAL, S A HIRA et al. Recent trends in electrochemical catalyst design for hydrogen evolution, oxygen evolution, and overall water splitting. Electrochimica Acta, 141715(2023).

    [9] H LI, J GUO, Z LI et al. Research progress of hydrogen production technology and related catalysts by electrolysis of water. Molecules, 5010(2023).

    [10] M PLEVOVA, J HNAT, K BOUZEK. Electrocatalysts for the oxygen evolution reaction in alkaline and neutral media. A comparative review. Journal of Power Sources, 230072(2021).

    [11] K C S LAKSHMI, B VEDHANARAYANAN, T W LIN. Electrocatalytic hydrogen and oxygen evolution reactions: role of two-dimensional layered materials and their composites. Electrochimica Acta, 142119(2023).

    [12] A L HOANG, S BALAKRISHNAN, A HODGES et al. High- performing catalysts for energy-efficient commercial alkaline water electrolysis. Sustainable Energy & Fuels, 31(2023).

    [13] R H GUO, Y J MO, S L AN et al. Cerium oxide hollow sphere: controllable synthesis and its effect on electrocatalytic performance of Pt-based catalysts. Journal of Inorganic Materials, 779(2018).

    [14] M Z IQBAL, R ZAHID, M W KHAN et al. Exploration of catalytically active materials for efficient electrochemical hydrogen and oxygen evolution reactions. International Journal of Hydrogen Energy, 8045(2023).

    [15] S NAGAPPAN, A KARMAKAR, R MADHU et al. Tuning the active sites and optimizing the d-spacing value in CoFe-LDH by ex situ intercalation of guest anions: an innovative electrocatalyst for overall water splitting reaction. Catalysis Science & Technology, 6377(2023).

    [16] Z HOU, F FAN, Z WANG et al. Heterostructural NiSe-CoFe LDH as a highly effective and stable electrocatalyst for the oxygen evolution reaction. Dalton Transactions, 10064(2023).

    [18] T GUO, L LI, Z WANG. Recent development and future perspectives of amorphous transition metal-based electrocatalysts for oxygen evolution reaction. Advanced Energy Materials, 2200827(2022).

    [20] F KARKEH-ABADI, M GHIYASIYAN-ARANI, E A DAWI et al. Microstructural study of sonochemical synthesized belt-like Zr (MoO4)2/MoO3 composites for efficient energy storage. Journal of Energy Storage, 107896(2023).

    [21] S DELICE, M ISIK, N M GASANLY et al. Growth and temperature-tuned band gap characteristics of LiGd (MoO4)2 single crystals for optoelectronic applications. Ceramics International, 25840(2023).

    [22] V GAJRAJ, P DEVI, R KUMAR et al. Fabrication of nanocluster- aggregated dense Ce2(MoO4)3 microspherical architectures for high-voltage energy storage and high catalytic energy conversion applications. Energy & Fuels, 7841(2022).

    [23] S K RAY, J HUR. A critical review on modulation of NiMoO4- based materials for photocatalytic applications. Journal of Environmental Management, 111562(2021).

    [24] K EDA, Y KATO, Y OHSHIRO et al. Synthesis, crystal structure, and structural conversion of Ni molybdate hydrate NiMoO4·nH2O. Journal of Solid State Chemistry, 1334(2010).

    [25] X ZHAO, J MENG, Z YAN et al. Nanostructured NiMoO4 as active electrocatalyst for oxygen evolution. Chinese Chemical Letters, 319(2019).

    [26] M B RAMMAL, S OMANOVIC. Synthesis and characterization of NiO, MoO3, and NiMoO4 nanostructures through a green, facile method and their potential use as electrocatalysts for water splitting. Materials Chemistry and Physics, 123570(2020).

    [27] M P DABIR, S M MASOUDPANAH, M MAMIZADEH. CTAB- assisted hydrothermal synthesis of platelike and nanorod-like NiMoO4 morphologies for supercapacitor and hydrogen evolution applications. Journal of Energy Storage, 107951(2023).

    [28] M M S SILVA, R A RAIMUNDO, T R SILVA et al. Morphology- controlled NiFe2O4nanostructures: influence of calcination temperature on structural, magnetic and catalytic properties towards OER. Journal of Electroanalytical Chemistry, 117277(2023).

    [29] M X LI, B XIAO, Z Y ZHAO et al. Morphology evolution regulation of dual-doped S, Fe-NiMoO4 microrods based on precipitation-dissolution equilibrium for oxygen evolution. Fuel, 126769(2023).

    [30] K PRASAD, N MAHATO, K YOO et al. Morphology regulated hierarchical rods-, buds-, and sheets-like CoMoO4 for electrocatalytic oxygen evolution reaction. Energies, 2441(2023).

    [31] G GAO, K WANG, X WANG. 2D/2D core/shell structure of FeCo2O4@NiMn LDH for efficient oxygen evolution reaction. Journal of Alloys and Compounds, 168478(2023).

    [32] C ZHANG, W XU, S LI et al. Core-shell heterojunction engineering of Ni0.85Se-O/CN electrocatalyst for efficient OER. Chemical Engineering Journal, 140291(2023).

    [34] S YANG, S K TIWARI, Z ZHU et al. In situ fabrication of Mn-doped NiMoO4 rod-like arrays as high performance OER electrocatalyst. Nanomaterials, 827(2023).

    [35] Y ZHANG, R YAO, Y WU et al. In situ rapid and deep self-reconstruction of Fe-doped hydrate NiMoO4 for stable water oxidation at high current densities. Chemical Engineering Journal, 142081(2023).

    [36] X WU, T ZHANG, J WEI et al. Facile synthesis of Co and Ce dual-doped Ni3S2 nanosheets on Ni foam for enhanced oxygen evolution reaction. Nano Research, 2130(2020).

    [37] L YU, Z REN. Systematic study of the influence of iR compensation on water electrolysis. Materials Today Physics, 100253(2020).

    [38] W ZHENG. iR compensation for electrocatalysis studies: considerations and recommendations. ACS Energy Letters, 1952(2023).

    [39] L YAO, R LI, H ZHANG et al. Interface engineering of NiTe@CoFe LDH for highly efficient overall water-splitting. International Journal of Hydrogen Energy, 32394(2022).

    [41] W LIU, H LIU, L DANG et al. Amorphous cobalt-iron hydroxide nanosheet electrocatalyst for efficient electrochemical and photo- electrochemical oxygen evolution. Advanced Functional Materials, 1603904(2017).

    [42] G JIANG, C ZHENG, Z JIN. Hexagonal CdS assembled with lamellar NiCo LDH form S-scheme heterojunction for photocatalytic hydrogen evolution. Materials Science in Semiconductor Processing, 106128(2021).

    [43] X BO, Y LI, X CHEN et al. Operando Raman spectroscopy reveals Cr-induced-phase reconstruction of NiFe and CoFe oxyhydroxides for enhanced electrocatalytic water oxidation. Chemistry of Materials, 4303(2020).

    [44] Y SHEN, K DASTAFKAN, Q SUN et al. Improved electrochemical performance of nickel-cobalt hydroxides by electrodeposition of interlayered reduced graphene oxide. International Journal of Hydrogen Energy, 3658(2019).

    [46] M QIN, Y WANG, H ZHANG et al. Hierarchical Co(OH)F/CoFe-LDH heterojunction enabling high-performance overall water-splitting. CrystEngComm, 6018(2022).

    [47] D FANG, F HE, J XIE et al. Calibration of binding energy positions with C1s for XPS results. Journal of Wuhan University of Technology-Materials Science Edition, 711(2020).

    [48] L JIN, Q WANG, K WANG et al. Engineering NiMoO4/NiFe LDH/rGO multicomponent nanosheets toward enhanced electrocatalytic oxygen evolution reaction. Dalton Transactions, 6448(2022).

    [49] B YAO, W W ZHANG, L SHE et al. Controlled direct electrodeposition of crystalline NiFe/amorphous NiFe-(oxy) hydroxide on NiMo alloy as a highly efficient bifunctional electrocatalyst for overall water splitting. Chemical Engineering Journal, 137420(2022).

    [50] L DURAI, A GOPALAKRISHNAN, S BADHULIKA. A low-cost and facile electrochemical sensor for the trace-level recognition of flutamide in biofluids using large-area bimetallic NiCo2O4 micro flowers. New Journal of Chemistry, 3383(2022).

    [51] L GUO, J CHI, J ZHU et al. Dual-doping NiMoO4 with multi-channel structure enable urea-assisted energy-saving H2 production at large current density in alkaline seawater. Applied Catalysis B: Environmental, 121977(2023).

    [53] J WANG, K CHEN, R PENG et al. Synergistically enhanced alkaline hydrogen evolution reaction by coupling CoFe layered double hydroxide with NiMoO4 prepared by two-step electrodeposition. New Journal of Chemistry, 20825(2021).

    [54] B P PAYNE, M C BIESINGER, N S MCINTYRE. X-ray photoelectron spectroscopy studies of reactions on chromium metal and chromium oxide surfaces. Journal of Electron Spectroscopy and Related Phenomena, 29(2011).

    [55] T YI, L SHI, X HAN et al. Approaching high-performance lithium storage materials by constructing hierarchical CoNiO2@CeO2 nanosheets. Energy & Environmental Materials, 586(2021).

    [56] R YANG, Y ZHOU, Y XING et al. Synergistic coupling of CoFe-LDH arrays with NiFe-LDH nanosheet for highly efficient overall water splitting in alkaline media. Applied Catalysis B: Environmental, 131(2019).

    [57] H XU, J WU, C LI et al. Investigation of polyaniline films doped with Fe3+ as the electrode material for electrochemical supercapacitors. Electrochimica Acta, 14(2015).

    [58] L PENG, N YANG, Y YANG et al. Atomic cation-vacancy engineering of NiFe-layered double hydroxides for improved activity and stability towards the oxygen evolution reaction. Angewandte Chemie International Edition, 24612(2021).

    [59] F NIE, Z LI, X DAI et al. Interfacial electronic modulation on heterostructured NiSe@CoFe LDH nanoarrays for enhancing oxygen evolution reaction and water splitting by facilitating the deprotonation of OH to O. Chemical Engineering Journal, 134080(2022).

    [60] S ZHANG, M CEN, Q WANG et al. Complete reconstruction of NiMoO4/NiFe LDH for enhanced oxygen evolution reaction. Chemical Communications, 3427(2023).

    [61] L CHEN, Z DENG, Z CHEN et al. Building Ni9S8/MoS2nanosheets decorated NiMoO4 nanorods heterostructure for enhanced water splitting. Advanced Materials Interfaces, 2101483(2021).

    [62] Q LI, K ZHANG, X LI et al. Enhanced electrocatalytic performance of uniformly spherical Ni-MOF decorated with NiMoO4 nanorods for oxygen evolution reaction. Journal of Alloys and Compounds, 165941(2022).

    [63] L CHEN, G C XU, G XU et al. Co-based coordination polymer-derived Co3S4 nanotube decorated with NiMoO4 nanosheets for effective oxygen evolution reaction. International Journal of Hydrogen Energy, 30463(2020).

    [64] F WANG, Z LIU, K ZHANG et al. Ce-doped Ni-S nanosheets on Ni foam supported NiMoO4 micropillars: fast electrodeposition, improved electrocatalytic activity and ultralong durability for the oxygen evolution reaction in various electrolytes. Dalton Transactions, 17774(2021).

    [65] J YUAN, S CHEN, Y ZHANG et al. Structural regulation of coupled phthalocyanine-porphyrin covalent organic frameworks to highly active and selective electrocatalytic CO2 reduction. Advanced Materials, 2203139(2022).

    [66] W ZHENG, M LIU, L Y S LEE. Best practices in using foam-type electrodes for electrocatalytic performance benchmark. ACS Energy Letters, 3260(2020).

    [67] Y REN, J WANG, W WANG et al. Boride-mediated synthesis of a highly active cobalt-based electrocatalyst for alkaline hydrogen evolution reaction. Journal of Materials Chemistry A, 1328(2023).

    [68] J WANG, L LI, L MENG et al. Morphology engineering of nickel molybdate hydrate nanoarray for electrocatalytic overall water splitting: from nanorod to nanosheet. RSC Advances, 35131(2018).

    [69] F YANG, Y LUO, Q YU et al. A durable and efficient electrocatalyst for saline water splitting with current density exceeding 2000 mA·cm-2. Advanced Functional Materials, 2010367(2021).

    [70] J AHMED, M UBIADULLAH, N ALHOKBANY et al. Synthesis of ultrafine NiMoO4 nano-rods for excellent electro-catalytic performance in hydrogen evolution reactions. Materials Letters, 126696(2019).

    [71] L AN, J FENG, Y ZHANG et al. Epitaxial heterogeneous interfaces on N-NiMoO4/NiS2 nanowires/nanosheets to boost hydrogen and oxygen production for overall water splitting. Advanced Functional Materials, 1805298(2019).

    [72] R JIANG, D ZHAO, H FAN et al. Phosphorus doping and phosphates coating for nickel molybdate/nickel molybdate hydrate enabling efficient overall water splitting. Journal of Colloid and Interface Science, 384(2022).

    [73] X DU, N LI, X ZHANG. Controlled synthesis of Co3O4@NiMoO4 core-shell nanorod arrays for efficient water splitting. Dalton Transactions, 12071(2018).

    [74] X D WANG, H Y CHEN, Y F XU et al. Self-supported NiMoP2 nanowires on carbon cloth as an efficient and durable electrocatalyst for overall water splitting. Journal of Materials Chemistry A, 7191(2017).

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    Quanxin YUE, Ruihua GUO, Ruifen WANG, Shengli AN, Guofang ZHANG, Lili GUAN. 3D Core-shell Structured NiMoO4@CoFe-LDH Nanorods: Performance of Efficient Oxygen Evolution Reaction and Overall Water Splitting [J]. Journal of Inorganic Materials, 2024, 39(11): 1254

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    Paper Information

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    Received: Mar. 4, 2024

    Accepted: --

    Published Online: Jan. 21, 2025

    The Author Email: GUO Ruihua (grh7810@163.com)

    DOI:10.15541/jim20240098

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