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Title:Unveiling non-classical pathways in copper electrodeposition via in situ electrochemical liquid-cell transmission electron microscopy
Authors:ID Parpal Gimenez, Monica (Author)
ID Souza Da Silva, Layrton Jose, Institut "Jožef Stefan" (Author)
ID Torres, Daniel (Author)
ID Leontev, Aleksei (Author)
ID El Marini, Mohamed (Author)
ID Semsari Parapari, Sorour, Institut "Jožef Stefan" (Author)
ID Šturm, Sašo, Institut "Jožef Stefan" (Author)
ID Ustarroz, Jon (Author)
Files:URL URL - Source URL, visit https://onlinelibrary.wiley.com/doi/10.1002/smsc.70327
 
.pdf PDF - Presentation file, download (2,82 MB)
MD5: 7EDC0CFBF534E052D0684D9F87E0C302
 
Language:English
Typology:1.01 - Original Scientific Article
Organization:Logo IJS - Jožef Stefan Institute
Abstract:Electrochemical nucleation and growth are traditionally described by classical atom-by-atom deposition models, yet the nanoscale dynamics governing phase formation at electrochemical interfaces remain poorly understood. Here, we directly visualize copper electrodeposition on glassy carbon by combining in situ electrochemical liquid-cell transmission electron microscopy (EC-TEM) with cyclic voltammetry, enabling direct correlation between global electrochemical signals and particle-resolved structural dynamics. Real-time imaging reveals that nanoparticle formation proceeds through a complex interplay of classical and non-classical pathways. Beyond radial and dendritic growth, we observe a range of particle-level processes, including mobility, coalescence, ripening-like mass exchange, and discrete relocation events, reflecting coupled transport and morphological transformation at the nanoscale. Quantitative tracking of individual nanoparticles reveals localized mass-transfer processes, including near one-to-one ripening dynamics and particle–particle interactions that redistribute material without producing a clear signature in the voltammetric response. These findings demonstrate that processes such as ripening, coalescence, and structural rearrangements can proceed without a discernible signature in the global electrochemical response. By bridging in situ nanoscale imaging with electrochemical analysis, this work provides direct mechanistic insight into early-stage electrochemical phase formation and highlights the dynamic nature of metal growth at electrochemical interfaces.
Publication status:Published
Publication version:Version of Record
Submitted for review:01.04.2026
Article acceptance date:09.06.2026
Publication date:05.07.2026
Publisher:Wiley
Year of publishing:2026
Number of pages:str. 1-11
Numbering:Vol. 6, iss. 7, [article no.] e70327
PID:20.500.12556/DiRROS-32249 New window
UDC:54
ISSN on article:2688-4046
DOI:10.1002/smsc.70327 New window
COBISS.SI-ID:288223491 New window
Copyright:© 2026 The Author(s).
Note:Nasl. z nasl. zaslona; Soavtor iz Slovenije: Sašo Šturm; Opis vira z dne 19. 8. 2026;
Publication date in DiRROS:02.09.2026
Views:24
Downloads:20
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Record is a part of a journal

Title:Small science
ISSN:2688-4046
COBISS.SI-ID:80699651 New window

Document is financed by a project

Funder:Other - Other funder or multiple funders
Funding programme:Research Foundation - Flanders
Project number:G0C3121N
Name:-

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:N1-0196-2021
Name:Napovedovanje nukleacijskih procesov elektrokemijske tvorbe faz s kombinacijo in situ elektronske mikrostkopije in večstopenjskim modeliranjem

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:J7-4636-2022
Name:Temeljno razumevanje reakcije tvorbe vodika za novo generacijo elektrokatalizatorjev na osnovi niklja v alkalni in kloralkalni elektrolizi

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:J2-4433-2022
Name:Jedrsko sevanje kot katalizator kemijskih procesov

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:GC-0004-2025
Name:CHRONOSTORE: Rešitve za shranjevanje kemijske energije čez časovne skale za podnebno odporne sisteme obnovljivih virov energije

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:P2-0084-2020
Name:Nanostrukturni materiali

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:Z2-50057-2023
Name:DYNACAT: Dinamične fazne formacije in razvoj elektrokatalizatorjev za izboljšano zajemanje in pretvorbo ogljika

Funder:ARIS - Slovenian Research and Innovation Agency
Project number:PR-12334
Name:Young Researcher Program

Funder:Fédération Wallonie-Bruxelles
Acronym:RENEGADE

Funder:Innoviris
Acronym:NDIAMO

Licences

License:CC BY 4.0, Creative Commons Attribution 4.0 International
Link:http://creativecommons.org/licenses/by/4.0/
Description:This is the standard Creative Commons license that gives others maximum freedom to do what they want with the work as long as they credit the author.
Licensing start date:05.07.2026
Applies to:VoR

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