Two transition metal phosphonate photocatalysts for H<sub>2</sub> evolution and CO<sub>2</sub> reduction

Wang, Jiajia; Zhang, Ruoqian; Liu, Yuanyuan; Wang, Zeyan; Wang, Peng; Zheng, Zhaoke; Qin, Xiaoyan; Zhang, Xiaoyang; Dai, Ying; Huang, Baibiao

doi:10.1039/c8cc02822b

Cited by 31 publications

(23 citation statements)

References 29 publications

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“…The 2 + oxidation state of nickel in NiWPPA-4 was confirmed by the spin energy gap (18 eV) between Ni2p 3/2 and 2p 1/2 . [41] Figure 3c illustrates the high resolution spectra with binding energies at 34 and 36 eV, which could be assigned to the octahedral tungsten(VI) 4f 7/2 and 4f 5/2 spectra, respectievely. [42] Figure 3d shows the high resolution O 1s spectra.…”

Section: Resultsmentioning

confidence: 99%

A New Porous Ni‐W Mixed Metal Phosphonate Open Framework Material for Efficient Photoelectrochemical OER

2020

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Photoelectrochemical water oxidation or oxygen evolution reaction (PEC‐OER) at the semiconductor surfaces has attracted huge attention over the years as it plays key role for energetically demanding processes like fuel cells, water splitting, and rechargeable metal‐air batteries. Thus, development of sustainable, abundant and economical semiconductor nanomaterials as the catalyst for photoelectrochemical water oxidation reaction is very challenging in achieving high efficiency in the overall water splitting reaction. Herein, we report a new porous Ni−W mixed metal phosphonate material NiWPPA‐4 with open framework structure through simple hydrothermal route and its crystalline framework has been indexed into a new orthorhombic crystal with unit cell dimensions: a=14.5506 Å, b=17.6445 Å, c=20.1766 Å and α=β=γ=90°. NiWPPA‐4 has been successfully utilized for photoelectrochemical OER from moderately basic medium [1(M) KOH] under constant irradiation of 100 mWcm−1 light source. Semiconducting property together with nanoscale porosity in the Ni−W mixed metal phosphonate is responsible for photoelectrochemical OER in alkaline pH. To the best of our knowledge it is the first report on a mixed metal phosphonate material, which showed excellent catalytic activity in the photoelectrochemical OER. The onset‐potential of NiWPPA‐4 prepared over ITO coated glass was only −410 mV vs Ag/AgCl and the oxygen evolution rate is 275 μmol g−1. This study thus established efficient photoelectrochemical OER on porous mixed‐metal phosphonates and offer opportunities for the utilization of metal phosphonates as potential photocatalyst in the energy conversion processes.

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Section: Resultsmentioning

confidence: 99%

A New Porous Ni‐W Mixed Metal Phosphonate Open Framework Material for Efficient Photoelectrochemical OER

2020

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“…[33] The strategy highlighted here is ligand extension through linking some non-pillaring "spacer" groups to the skeleton of the layered metal phosphonates, facilitating the production of pore structure, and adjustment of the pore environment, which greatly promotes the early scientific research of porous metal phosphonates. Also, the physicochemical properties of porous metal phosphonates through ligand extension strategy are summarized in Table 1, [34][35][36][37][38][39][40][41][42][43][44] which implies the applicability of this strategy for pore generation. However, it is noted that the substitution in this route is random, leading to narrow pore size distribution.…”

Section: Linking Non-pillaring "Spacer" Groupsmentioning

confidence: 99%

“…Very recently, Huang et al reported the bimetal Co-Ni phosphonates as photocatalysts for hydrogen evolution from water and CO 2 reduction under UV light irradiation. [44] It was revealed that Ni + or Co + generated under light irradiation functioned as the active site to efficiently reduce proton in water or CO 2 . [44] This work highlighted the great potential of metal phosphonates for photocatalysis due to the versatile coordination chemistry of metal active sites and organic ligands.…”

Section: Metal Complexes As Catalytic Sitesmentioning

confidence: 99%

Nanoporous Metal Phosphonate Hybrid Materials as a Novel Platform for Emerging Applications: A Critical Review

Weng

Zhu

et al. 2021

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Nanoporous metal phosphonates are propelling the rapid development of emerging energy storage, catalysis, environmental intervention, and biology, the performances of which touch many fundamental aspects of portable electronics, convenient transportation, and sustainable energy conversion systems. Recent years have witnessed tremendous research breakthroughs in these fields in terms of the fascinating pore properties, the structural periodicity, and versatile skeletons of porous metal phosphonates. This review presents recent milestones of porous metal phosphonate research, from the diversified synthesis strategies for controllable pore structures, to several important applications including adsorption and separation, energy conversion and storage, heterogeneous catalysis, membrane engineering, and biomaterials. Highlights of porous structure design for metal phosphonates are described throughout the review and the current challenges and perspectives for future research in this field are discussed at the end. The aim is to provide some guidance for the rational preparation of porous metal phosphonate materials and promote further applications to meet the urgent demands in emerging applications.

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“…Metal phosphonates hold great potential in the fields of catalysis and energy due to their combination of the specificity of organic groups and inorganic species. [49][50][51] The simple calcination of metal phosphonates is an efficient way to prepare metal phosphates, during which the graphitic carbons can be in-situ produced and coated on metal phosphate particles. The generated graphitic carbon layer can endow the catalyst with good stability and conductivity.…”

Section: Organophosphonate-derived Strategymentioning

confidence: 99%

“…The diversity of coordination chemistry of metal phosphates leads to various local coordination environment around the center of metal ions. Metal phosphonates hold great potential in the fields of catalysis and energy due to their combination of the specificity of organic groups and inorganic species . The simple calcination of metal phosphonates is an efficient way to prepare metal phosphates, during which the graphitic carbons can be in‐situ produced and coated on metal phosphate particles.…”

Section: Synthesis Strategies Of Transition Metal Phosphatesmentioning

confidence: 99%

Insights into Transition Metal Phosphate Materials for Efficient Electrocatalysis

2020

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Over the past decade, transition metal phosphate materials have attracted enormous interest for various functional devices. In addition to being low‐cost, earth‐abundant and environmentally benign, transition metal phosphates have several unique advantages including high stability, unique chemical/physical characteristics and tunable multifunctionality, making them ideally suited for advanced highly‐efficiency energy conversion and storage applications. In this Review, the synthetic strategies for transition metal phosphates are summarized, and the most recent advances in the development of transition metal phosphates are described for efficient electrocatalysis such as oxygen evolution, hydrogen evolution and oxygen reduction reactions, highlighting the impact of their morphologies and structures on the electrochemical performance and practical applications in overall water splitting and rechargeable metal‐air batteries. Finally, the challenges facing the development of transition metal phosphates in the field of energy conversion and storage are outlined, together with directions of further research and perspectives.

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Two transition metal phosphonate photocatalysts for H₂ evolution and CO₂ reduction

Cited by 31 publications

References 29 publications

A New Porous Ni‐W Mixed Metal Phosphonate Open Framework Material for Efficient Photoelectrochemical OER

A New Porous Ni‐W Mixed Metal Phosphonate Open Framework Material for Efficient Photoelectrochemical OER

Nanoporous Metal Phosphonate Hybrid Materials as a Novel Platform for Emerging Applications: A Critical Review

Insights into Transition Metal Phosphate Materials for Efficient Electrocatalysis

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Two transition metal phosphonate photocatalysts for H2 evolution and CO2 reduction

Cited by 31 publications

References 29 publications

A New Porous Ni‐W Mixed Metal Phosphonate Open Framework Material for Efficient Photoelectrochemical OER

A New Porous Ni‐W Mixed Metal Phosphonate Open Framework Material for Efficient Photoelectrochemical OER

Nanoporous Metal Phosphonate Hybrid Materials as a Novel Platform for Emerging Applications: A Critical Review

Insights into Transition Metal Phosphate Materials for Efficient Electrocatalysis

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Two transition metal phosphonate photocatalysts for H₂ evolution and CO₂ reduction