1922
DOI: 10.1039/ct9222102091
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CCL.—Physical chemistry of the oxides of lead. Part VI. The anodic behaviour of lead and lead dioxide

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Cited by 11 publications
(13 citation statements)
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“…The establishment of the electrolysis principle in 1820 by Faraday and the subsequent development of the electrodynamic principle combined with technical advancements made industrial water electrolysis a reality in the late 19th and early 20th centuries . In 1922, Glasstone studied the anodic behavior of lead and lead oxide in an alkaline solution . He observed that OERs at the lead and lead dioxide anodes occurs at almost identical potentials, and a black film was generated on the lead anode during electrocatalysis.…”
Section: Materials With Structural Transformation In Oer Electrocatal...mentioning
confidence: 99%
“…The establishment of the electrolysis principle in 1820 by Faraday and the subsequent development of the electrodynamic principle combined with technical advancements made industrial water electrolysis a reality in the late 19th and early 20th centuries . In 1922, Glasstone studied the anodic behavior of lead and lead oxide in an alkaline solution . He observed that OERs at the lead and lead dioxide anodes occurs at almost identical potentials, and a black film was generated on the lead anode during electrocatalysis.…”
Section: Materials With Structural Transformation In Oer Electrocatal...mentioning
confidence: 99%
“…Only some orienting thoughts can be put forward from our measurements and the collected information from literature. a) A very informative review [30] suggests that lead dioxide reacts as an inert electrode under anodic polarisation and oxygen evolution, despite previous considerations by Glasstone [31] on adsorbed oxygen intermediates. The main argument is that lead does not experience a valence state greater than IV.…”
Section: Discussionmentioning
confidence: 99%
“…It has been suggested that the oxidation process on lead in alkaline solutions occurs by a two-electron exchange mechanism. 182,183,204,210 Pb + 20H-= PbO + H20 + 2e (51) Part of the PbO is then oxidized to -lead dioxide H20 = (0)ads + 2H+ + 2e At potentials above the 03-H20 potential, lead oxidizes directly to lead dioxide by a tetravalent mechanism.…”
Section: To Lead Dioxidementioning
confidence: 99%