Maciej Fronczak

Dr. Maciej Fronczak

Lodz University of Technology
orcid

Research Focus & Metrics

Academic Career Length

10Years (2017-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 October 2020 in Journal of Environmental Chemical Engineering
Verified
Journal Article
Closed access
Maciej FronczakMaciej Fronczak
Maciej Fronczak

12 July 2017 in The Journal of Physical Chemistry C
Verified
Journal Article
Closed access
Maciej FronczakMaciej Fronczak
Maciej Fronczak
MKMilena Krajewska
Milena Krajewska
KDKatarzyna Demby
Katarzyna Demby
MBMichał Bystrzejewski
Michał Bystrzejewski

1 June 2018 in Langmuir
Verified
Journal Article
Closed access
Maciej FronczakMaciej Fronczak
Maciej Fronczak
KDKatarzyna Demby
Katarzyna Demby
PSPrzemysław Strachowski
Przemysław Strachowski
MSMarcin Strawski
Marcin Strawski
MBMichał Bystrzejewski
Michał Bystrzejewski

1 August 2017 in Chemical Engineering Journal
Verified
Journal Article
Closed access
Maciej FronczakMaciej Fronczak
Maciej Fronczak
PFPéter Fazekas
Péter Fazekas
ZKZoltán Károly
Zoltán Károly
BHBartosz Hamankiewicz
Bartosz Hamankiewicz
MBMichał Bystrzejewski
Michał Bystrzejewski

12 March 2022 in Carbon
Verified
Journal Article
Closed access
Maciej FronczakMaciej Fronczak
Maciej Fronczak
AKAnna Maria Keszler
Anna Maria Keszler
MMMiklós Mohai
Miklós Mohai
BJBálint Jezsó
Bálint Jezsó
AFAttila Farkas
Attila Farkas
ZKZoltán Károly
Zoltán Károly

13 November 2017 in Journal of Materials Science
Verified
Journal Article
Open access
PDF file
Maciej FronczakMaciej Fronczak
Maciej Fronczak
OŁOlga Łabędź
Olga Łabędź
WKWaldemar Kaszuwara
Waldemar Kaszuwara
MBMichał Bystrzejewski
Michał Bystrzejewski
The carbon coating in carbon-encapsulated magnetic nanoparticles is considered as a tight and impermeable barrier which should perfectly protect the magnetic core material from external chemical environment. To study the integrity of the coating, carbon-encapsulated iron nanoparticles were subjected to corrosion tests, in which various corrosion agents were used. Several mineral and organic acids, as well as active gaseous environments with various oxidation potential, were applied. Additionally, the corrosion resistance was studied under the so-called galvanic corrosion, using two metal ions (copper and silver) which have higher redox potential than the zero-valent iron. The release of iron from the core as well as the morphology, structural features, chemical composition, and magnetic properties of carbon-encapsulated iron nanoparticles was systematically monitored at each stage of the corrosion process. The largest release of Fe from the encapsulate core was observed when nitric acid was used as the corrosion agent.