Electrochemical behavior of sodium azide at Pt and Au electrodes in sodium sulfate electrolyte : a DEMS study

Azides are widely used in chemical technology for a large variety of applications, such as detonators (Pb(N{sub 3}){sub 2}), getters in electric discharge tubes, anticorrosive agents, or additives for the production of foam rubber. The electro-oxidation and -reduction of sodium azide at porous paint...

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Veröffentlicht in:Journal of the Electrochemical Society 1995-11, Vol.142 (11), p.3735-3740
Hauptverfasser: DALMIA, A, WASMUS, S, SAVINELL, R. F, LIU, C. C
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container_issue 11
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container_title Journal of the Electrochemical Society
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creator DALMIA, A
WASMUS, S
SAVINELL, R. F
LIU, C. C
description Azides are widely used in chemical technology for a large variety of applications, such as detonators (Pb(N{sub 3}){sub 2}), getters in electric discharge tubes, anticorrosive agents, or additives for the production of foam rubber. The electro-oxidation and -reduction of sodium azide at porous painted platinum and gold electrodes was studied using the multipurpose electrochemical mass spectrometry (MPEMS) which was operated in the differential electrochemical mass spectrometry (DEMS) mode. The platinum electrode was found to be active for electro-oxidation as well as for electroreduction. Above 0.3 V vs. Hg/Hg{sub 2}SO{sub 4}, azide is oxidized to give N{sub 2}, NO, NO{sub 2}, and N{sub 2}O. Reduction of azide takes place below {minus}0.9 V forming N{sub 2}, N{sub 2}H{sub 4}, and possibly NH{sub 3}. In contrast to platinum, gold showed only activity for the electro-oxidation of azide leading to the formation of N{sub 2}, NO, NO{sub 2}, and N{sub 2}O above 0.5 V. Evidence for a reaction without evolution of volatile products was also found taking place above 0.1 V. A reaction mechanism is discussed emphasizing the role of adsorbed hydrogen and oxygen.
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Reduction of azide takes place below {minus}0.9 V forming N{sub 2}, N{sub 2}H{sub 4}, and possibly NH{sub 3}. In contrast to platinum, gold showed only activity for the electro-oxidation of azide leading to the formation of N{sub 2}, NO, NO{sub 2}, and N{sub 2}O above 0.5 V. Evidence for a reaction without evolution of volatile products was also found taking place above 0.1 V. 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The platinum electrode was found to be active for electro-oxidation as well as for electroreduction. Above 0.3 V vs. Hg/Hg{sub 2}SO{sub 4}, azide is oxidized to give N{sub 2}, NO, NO{sub 2}, and N{sub 2}O. Reduction of azide takes place below {minus}0.9 V forming N{sub 2}, N{sub 2}H{sub 4}, and possibly NH{sub 3}. In contrast to platinum, gold showed only activity for the electro-oxidation of azide leading to the formation of N{sub 2}, NO, NO{sub 2}, and N{sub 2}O above 0.5 V. Evidence for a reaction without evolution of volatile products was also found taking place above 0.1 V. A reaction mechanism is discussed emphasizing the role of adsorbed hydrogen and oxygen.</abstract><cop>Pennington, NJ</cop><pub>Electrochemical Society</pub><doi>10.1149/1.2048406</doi><tpages>6</tpages></addata></record>
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subjects 40 CHEMISTRY
AMMONIA
AZIDES
Chemistry
CORROSION INHIBITORS
Electrochemistry
ELECTROLYSIS
Exact sciences and technology
EXPERIMENTAL DATA
General and physical chemistry
GOLD
HYDRAZINE
Kinetics and mechanism of reactions
MERCURY
MERCURY SULFATES
NITRIC OXIDE
NITROGEN
NITROGEN DIOXIDE
NITROUS OXIDE
PLATINUM
REDOX REACTIONS
SODIUM COMPOUNDS
SODIUM SULFATES
title Electrochemical behavior of sodium azide at Pt and Au electrodes in sodium sulfate electrolyte : a DEMS study
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