Unveiling Ruthenium(II) Diazadienyls for Gas Phase Deposition Processes: Low Resistivity Ru Thin Films and Their Performance in the Acidic Oxygen Evolution Reaction

Two novel ruthenium complexes belonging to the Ru(II)(DAD)(Cym) (DAD = diazadienyl) (Cym = cymene) compound family are introduced as promising precursors. Their chemical nature, potential for chemical vapor deposition (CVD), and possibly atomic layer deposition (ALD) are demonstrated. The developmen...

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Veröffentlicht in:Advanced materials interfaces 2022-12, Vol.9 (35), p.n/a
Hauptverfasser: Zanders, David, Obenlüneschloß, Jorit, Wree, Jan‐Lucas, Jagosz, Julia, Kaur, Parmish, Boysen, Nils, Rogalla, Detlef, Kostka, Aleksander, Bock, Claudia, Öhl, Denis, Gock, Michael, Schuhmann, Wolfgang, Devi, Anjana
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container_issue 35
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container_title Advanced materials interfaces
container_volume 9
creator Zanders, David
Obenlüneschloß, Jorit
Wree, Jan‐Lucas
Jagosz, Julia
Kaur, Parmish
Boysen, Nils
Rogalla, Detlef
Kostka, Aleksander
Bock, Claudia
Öhl, Denis
Gock, Michael
Schuhmann, Wolfgang
Devi, Anjana
description Two novel ruthenium complexes belonging to the Ru(II)(DAD)(Cym) (DAD = diazadienyl) (Cym = cymene) compound family are introduced as promising precursors. Their chemical nature, potential for chemical vapor deposition (CVD), and possibly atomic layer deposition (ALD) are demonstrated. The development of nonoxidative CVD processes yielding high‐quality Ru thin films is realized. Chemical analyses are exercised that vitiate the deceptive assumption of Ru(DAD)(Aryl) complexes being zero‐valent through clear evidence for the redox noninnocence of the DAD ligand. Two different CVD routes for the growth of Ru films are developed using Ru(tBu2DAD)(Cym). Ru thin films from both processes are subjected to thorough and comparative analyses that allowed to deduce similarities and differences in film growth. Ru thin films with a thickness of 30–35 nm grown on SiO2 yielded close‐to‐bulk resistivity values ranging from 12 to 16 µΩ cm. Catalysis evaluation of the films in the acidic oxygen evolution reaction (OER) results in promising performances based on overpotentials as low as 240 mV with Tafel slopes of 45–50 mV dec−1. Based on the degradation observed during electrochemical measurements, the impact of OER conditions on the layers is critically assessed by complementary methods. Ru(II)(DAD)(Cym)‐type complexes are unearthed as new class of precursors for chemical vapor deposition processes owing to their promising thermal characteristics and reactivity. The growth of high‐purity Ru thin films by chemical vapor deposition with resistivities as low as 12–16 µΩ cm is demonstrated alongside excellent short‐term catalytic performance in the acidic oxygen evolution reaction.
doi_str_mv 10.1002/admi.202201709
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Their chemical nature, potential for chemical vapor deposition (CVD), and possibly atomic layer deposition (ALD) are demonstrated. The development of nonoxidative CVD processes yielding high‐quality Ru thin films is realized. Chemical analyses are exercised that vitiate the deceptive assumption of Ru(DAD)(Aryl) complexes being zero‐valent through clear evidence for the redox noninnocence of the DAD ligand. Two different CVD routes for the growth of Ru films are developed using Ru(tBu2DAD)(Cym). Ru thin films from both processes are subjected to thorough and comparative analyses that allowed to deduce similarities and differences in film growth. Ru thin films with a thickness of 30–35 nm grown on SiO2 yielded close‐to‐bulk resistivity values ranging from 12 to 16 µΩ cm. Catalysis evaluation of the films in the acidic oxygen evolution reaction (OER) results in promising performances based on overpotentials as low as 240 mV with Tafel slopes of 45–50 mV dec−1. Based on the degradation observed during electrochemical measurements, the impact of OER conditions on the layers is critically assessed by complementary methods. Ru(II)(DAD)(Cym)‐type complexes are unearthed as new class of precursors for chemical vapor deposition processes owing to their promising thermal characteristics and reactivity. 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subjects Atomic layer epitaxy
Chemical vapor deposition
chemical vapor deposition (CVD)
Electrical resistivity
Film growth
oxygen evolution reaction
Oxygen evolution reactions
precursors
resistivity
Ruthenium compounds
ruthenium thin films
Silicon dioxide
Thickness
Thin films
Vapor phases
title Unveiling Ruthenium(II) Diazadienyls for Gas Phase Deposition Processes: Low Resistivity Ru Thin Films and Their Performance in the Acidic Oxygen Evolution Reaction
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