Devender Singh1, William R Buratto1, Juan F Torres1, Leslie J Murray1. 1. Center for Catalysis, and Florida Center for Heterocyclic Compounds, Department of Chemistry, University of Florida, Gainesville, Florida 32611-7200, United States.
Abstract
Activation of dinitrogen plays an important role in daily anthropogenic life, and the processes by which this fixation occurs have been a longstanding and significant research focus within the community. One of the major fields of dinitrogen activation research is the use of multimetallic compounds to reduce and/or activate N2 into a more useful nitrogen-atom source, such as ammonia. Here we report a comprehensive review of multimetallic-dinitrogen complexes and their utility toward N2 activation, beginning with the d-block metals from Group 4 to Group 11, then extending to Group 13 (which is exclusively populated by B complexes), and finally the rare-earth and actinide species. The review considers all polynuclear metal aggregates containing two or more metal centers in which dinitrogen is coordinated or activated (i.e., partial or complete cleavage of the N2 triple bond in the observed product). Our survey includes complexes in which mononuclear N2 complexes are used as building blocks to generate homo- or heteromultimetallic dinitrogen species, which allow one to evaluate the potential of heterometallic species for dinitrogen activation. We highlight some of the common trends throughout the periodic table, such as the differences between coordination modes as it relates to N2 activation and potential functionalization and the effect of polarizing the bridging N2 ligand by employing different metal ions of differing Lewis acidities. By providing this comprehensive treatment of polynuclear metal dinitrogen species, this Review aims to outline the past and provide potential future directions for continued research in this area.
n class="Chemical">Acpan>n class="Chemical">tivan class="Chemical">tion of dinitrogen plays an important role in daily anthropogenic life, and the processes by which this fixation occurs have been a longstanding and significant research focus within the community. One of the major fields of dinitrogenactivation research is the use of multimetallic compounds to reduce and/or activate N2 into a moreuseful nitrogen-atom source, such as ammonia. Herewe report a comprehensive review of multimetallic-dinitrogen complexes and their utility toward N2activation, beginning with the d-block metals from Group 4 to Group 11, then extending to Group 13 (which is exclusively populated by B complexes), and finally the rare-earth and actinide species. The reviewconsiders all polynuclear metal aggregates containing two or moremetal centers in which dinitrogen is coordinated or activated (i.e., partial or complete cleavage of the N2 triple bond in the observed product). Our survey includes complexes in which mononuclear N2complexes areused as building blocks to generate homo- or heteromultimetallic dinitrogen species, which allow one to evaluate the potential of heterometallic species for dinitrogenactivation. We highlight some of the common trends throughout the periodic table, such as the differences between coordination modes as it relates to N2activation and potential functionalization and the effect of polarizing the bridging N2 ligand by employing different metal ions of differing Lewis acidities. By providing this comprehensive treatment of polynuclear metal dinitrogen species, this Review aims to outline the past and provide potential future directions for continued research in this area.
Authors: Matthew A Rankin; Kevin D Hesp; Gabriele Schatte; Robert McDonald; Mark Stradiotto Journal: Chem Commun (Camb) Date: 2007-10-25 Impact factor: 6.222
Authors: Jonathan D. Cohen; Michael D. Fryzuk; Thomas M. Loehr; Murugesapillai Mylvaganam; Steven J. Rettig Journal: Inorg Chem Date: 1998-01-12 Impact factor: 5.165
Authors: Ba L Tran; Balazs Pinter; Adam J Nichols; Felicia T Konopka; Rick Thompson; Chun-Hsing Chen; J Krzystek; Andrew Ozarowski; Joshua Telser; Mu-Hyun Baik; Karsten Meyer; Daniel J Mindiola Journal: J Am Chem Soc Date: 2012-07-25 Impact factor: 15.419
Authors: Matthew J Chalkley; Trevor J Del Castillo; Benjamin D Matson; Joseph P Roddy; Jonas C Peters Journal: ACS Cent Sci Date: 2017-02-14 Impact factor: 14.553
Authors: Juan F Torres; Collin H Oi; Ian P Moseley; Nabila El-Sakkout; Brian J Knight; Jason Shearer; Ricardo García-Serres; Joseph M Zadrozny; Leslie J Murray Journal: Angew Chem Int Ed Engl Date: 2022-03-31 Impact factor: 16.823
Authors: John W Peters; Oliver Einsle; Dennis R Dean; Serena DeBeer; Brian M Hoffman; Patrick L Holland; Lance C Seefeldt Journal: Science Date: 2021-02-12 Impact factor: 47.728
Authors: Estefanía Del Horno; Jesús Jover; Miguel Mena; Adrián Pérez-Redondo; Carlos Yélamos Journal: Angew Chem Int Ed Engl Date: 2022-07-11 Impact factor: 16.823