Morphology‐Controlled Metal Sulfides and Phosphides for Electrochemical Water Splitting
Because H2 is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble‐metal‐based catalysts are used as electrode materials in water electrolyzers, but their high cost and low abundance have impeded them from being used in...
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| Published in: | Advanced materials (Weinheim) Vol. 31; no. 14; pp. e1806682 - n/a |
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| Main Authors: | , , , , |
| Format: | Journal Article |
| Language: | English |
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Germany
Wiley Subscription Services, Inc
05-04-2019
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| Abstract | Because H2 is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble‐metal‐based catalysts are used as electrode materials in water electrolyzers, but their high cost and low abundance have impeded them from being used in practical areas. Recently, metal sulfides and phosphides based on earth‐abundant transition metals have emerged as promising candidates for efficient water‐splitting catalysts. Most studies have focused on adjusting the composition of the metal sulfides and phosphides to enhance the catalytic performance. However, morphology control of catalysts, including faceted and hollow structures, is much less explored for these systems because of difficulties in the synthesis, which requires a deep understanding of the nanocrystal growth process. Herein, representative synthetic methods for morphology‐controlled metal sulfides and phosphides are introduced to provide insights into these methodologies. The electrolytic performance of morphology‐controlled metal sulfide‐ and phosphide‐based nanocatalysts with enhanced surface area and intrinsically high catalytic activity is also summarized and the future research directions for this promising catalyst group is discussed.
Metal sulfide and phosphide nanoparticles have emerged as viable alternatives to expensive noble‐metal‐based electrocatalysts for water splitting. The recent significant developments of morphology‐controlled metal sulfide and phosphide nanoparticles as electrcatalysts for the hydrogen evolution reaction and oxygen evolution reaction are addressed. |
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| AbstractList | Abstract
Because H
2
is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble‐metal‐based catalysts are used as electrode materials in water electrolyzers, but their high cost and low abundance have impeded them from being used in practical areas. Recently, metal sulfides and phosphides based on earth‐abundant transition metals have emerged as promising candidates for efficient water‐splitting catalysts. Most studies have focused on adjusting the composition of the metal sulfides and phosphides to enhance the catalytic performance. However, morphology control of catalysts, including faceted and hollow structures, is much less explored for these systems because of difficulties in the synthesis, which requires a deep understanding of the nanocrystal growth process. Herein, representative synthetic methods for morphology‐controlled metal sulfides and phosphides are introduced to provide insights into these methodologies. The electrolytic performance of morphology‐controlled metal sulfide‐ and phosphide‐based nanocatalysts with enhanced surface area and intrinsically high catalytic activity is also summarized and the future research directions for this promising catalyst group is discussed. Because H is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble-metal-based catalysts are used as electrode materials in water electrolyzers, but their high cost and low abundance have impeded them from being used in practical areas. Recently, metal sulfides and phosphides based on earth-abundant transition metals have emerged as promising candidates for efficient water-splitting catalysts. Most studies have focused on adjusting the composition of the metal sulfides and phosphides to enhance the catalytic performance. However, morphology control of catalysts, including faceted and hollow structures, is much less explored for these systems because of difficulties in the synthesis, which requires a deep understanding of the nanocrystal growth process. Herein, representative synthetic methods for morphology-controlled metal sulfides and phosphides are introduced to provide insights into these methodologies. The electrolytic performance of morphology-controlled metal sulfide- and phosphide-based nanocatalysts with enhanced surface area and intrinsically high catalytic activity is also summarized and the future research directions for this promising catalyst group is discussed. Because H2 is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble‐metal‐based catalysts are used as electrode materials in water electrolyzers, but their high cost and low abundance have impeded them from being used in practical areas. Recently, metal sulfides and phosphides based on earth‐abundant transition metals have emerged as promising candidates for efficient water‐splitting catalysts. Most studies have focused on adjusting the composition of the metal sulfides and phosphides to enhance the catalytic performance. However, morphology control of catalysts, including faceted and hollow structures, is much less explored for these systems because of difficulties in the synthesis, which requires a deep understanding of the nanocrystal growth process. Herein, representative synthetic methods for morphology‐controlled metal sulfides and phosphides are introduced to provide insights into these methodologies. The electrolytic performance of morphology‐controlled metal sulfide‐ and phosphide‐based nanocatalysts with enhanced surface area and intrinsically high catalytic activity is also summarized and the future research directions for this promising catalyst group is discussed. Metal sulfide and phosphide nanoparticles have emerged as viable alternatives to expensive noble‐metal‐based electrocatalysts for water splitting. The recent significant developments of morphology‐controlled metal sulfide and phosphide nanoparticles as electrcatalysts for the hydrogen evolution reaction and oxygen evolution reaction are addressed. Because H2 is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble‐metal‐based catalysts are used as electrode materials in water electrolyzers, but their high cost and low abundance have impeded them from being used in practical areas. Recently, metal sulfides and phosphides based on earth‐abundant transition metals have emerged as promising candidates for efficient water‐splitting catalysts. Most studies have focused on adjusting the composition of the metal sulfides and phosphides to enhance the catalytic performance. However, morphology control of catalysts, including faceted and hollow structures, is much less explored for these systems because of difficulties in the synthesis, which requires a deep understanding of the nanocrystal growth process. Herein, representative synthetic methods for morphology‐controlled metal sulfides and phosphides are introduced to provide insights into these methodologies. The electrolytic performance of morphology‐controlled metal sulfide‐ and phosphide‐based nanocatalysts with enhanced surface area and intrinsically high catalytic activity is also summarized and the future research directions for this promising catalyst group is discussed. |
| Author | Choi, Sang‐Il Kim, Taekyung Lee, Jaeyoung Joo, Jinwhan Lee, Kwangyeol |
| Author_xml | – sequence: 1 givenname: Jinwhan orcidid: 0000-0001-5614-8790 surname: Joo fullname: Joo, Jinwhan organization: Korea University – sequence: 2 givenname: Taekyung orcidid: 0000-0003-0401-5958 surname: Kim fullname: Kim, Taekyung organization: Korea University – sequence: 3 givenname: Jaeyoung surname: Lee fullname: Lee, Jaeyoung organization: Korea University – sequence: 4 givenname: Sang‐Il surname: Choi fullname: Choi, Sang‐Il email: sichoi@knu.ac.kr organization: Kyungpook National University – sequence: 5 givenname: Kwangyeol orcidid: 0000-0003-0575-7216 surname: Lee fullname: Lee, Kwangyeol email: kylee1@korea.ac.kr organization: Korea University |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/30706578$$D View this record in MEDLINE/PubMed |
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| Snippet | Because H2 is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble‐metal‐based... Because H is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology. Noble-metal-based... Abstract Because H 2 is considered a promising clean energy source, water electrolysis has attracted great interest in related research and technology.... |
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| SubjectTerms | Abundance Catalysis Catalysts Catalytic activity Clean energy Control methods Electrode materials Electrolysis facet‐controlled hollow structures Materials science metal phosphides Metal sulfides Morphology Nanocrystals Phosphides Transition metals Water splitting |
| Title | Morphology‐Controlled Metal Sulfides and Phosphides for Electrochemical Water Splitting |
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