1998
DOI: 10.1002/(sici)1521-3757(19980803)110:15<2210::aid-ange2210>3.0.co;2-1
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Photolumineszente, starre Molekülstäbe mit Cn-Cumulenspacern (n=3, 4): Modulierung der elektronischen Wechselwirkung

Abstract: Durch Variation der Länge der Kohlenstoffketten in den Brücken von Verbindungen des Typs 1 und 2 lassen sich die photophysikalischen Eigenschaften und Redoxpotentiale der Metallzentren beeinflusssen, ebenso die elektronische Wechselwirkung zwischen diesen Metallzentren (M=Ru, Os; bpy=2,2′‐Bipyridin).

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Cited by 9 publications
(2 citation statements)
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“…In this work, we report that the bis(bidentate) phosphine cis , trans , cis -1,2,3,4-tetrakis(diphenylphosphino)cyclobutane (dppcb) (see Chart 1) prepared in our laboratory only recently and designed as a spacer having two bidentate sets of coordination sites to incorporate molecular components such as [Ru(bipy) 2 ] 2+ , where bipy is 2,2‘-bipyridine, leads to a completely unexpected photochemical reactivity of the resulting homobimetallic complexes [Ru 2 (dppcb)(bipy) 4 ] 4+ . To the best of our knowledge, no other phosphine combined with the building block [M(bipy) 2 ] 2+ (M = Ru, Os) shows this reactivity. Both diastereoisomerically pure forms of [Ru 2 (dppcb)(bipy) 4 ] 4+ undergo a photochemical ligand exchange reaction, where in the presence of acetonitrile [Ru 2 (dppcb)(bipy) 2 (MeCN) 4 ] 4+ is produced (see Chart 1), and all three complexes have been fully characterized by X-ray diffraction methods. Hitherto, this type of reaction has been mainly restricted to carbonyl complexes of Ru(II), [Ru(bipy) 3 ] 2+ , Ru(II)−arene systems, and Ru(II) compounds containing Schiff base ligands …”
Section: Introductionmentioning
confidence: 99%
See 1 more Smart Citation
“…In this work, we report that the bis(bidentate) phosphine cis , trans , cis -1,2,3,4-tetrakis(diphenylphosphino)cyclobutane (dppcb) (see Chart 1) prepared in our laboratory only recently and designed as a spacer having two bidentate sets of coordination sites to incorporate molecular components such as [Ru(bipy) 2 ] 2+ , where bipy is 2,2‘-bipyridine, leads to a completely unexpected photochemical reactivity of the resulting homobimetallic complexes [Ru 2 (dppcb)(bipy) 4 ] 4+ . To the best of our knowledge, no other phosphine combined with the building block [M(bipy) 2 ] 2+ (M = Ru, Os) shows this reactivity. Both diastereoisomerically pure forms of [Ru 2 (dppcb)(bipy) 4 ] 4+ undergo a photochemical ligand exchange reaction, where in the presence of acetonitrile [Ru 2 (dppcb)(bipy) 2 (MeCN) 4 ] 4+ is produced (see Chart 1), and all three complexes have been fully characterized by X-ray diffraction methods. Hitherto, this type of reaction has been mainly restricted to carbonyl complexes of Ru(II), [Ru(bipy) 3 ] 2+ , Ru(II)−arene systems, and Ru(II) compounds containing Schiff base ligands …”
Section: Introductionmentioning
confidence: 99%
“…To the best of our knowledge, no other phosphine combined with the building block [M(bipy) 2 ] 2+ (M ) Ru, Os) shows this reactivity. [6][7][8][9][10][11][12][13][14][15] Both diastereoisomerically pure forms of [Ru 2 (dppcb)(bipy) 4 ] 4+ undergo a photochemical ligand exchange reaction, where in the presence of acetonitrile [Ru 2 (dppcb)-(bipy) 2 (MeCN) 4 ] 4+ is produced (see Chart 1), and all three complexes have been fully characterized by X-ray diffraction methods. Hitherto, this type of reaction has been mainly restricted to carbonyl complexes of Ru(II), [16][17][18] [Ru(bipy) 3 ] 2+ , 19 Ru(II)-arene systems, 20 and Ru(II) compounds containing Schiff base ligands.…”
Section: Introductionmentioning
confidence: 99%