Mariya Vorobyova

Dr. Mariya Vorobyova

orcid

Research Focus & Metrics

Academic Career Length

5Years (2022-Present)

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

Representative Publications

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1 February 2022 in Journal of Alloys and Compounds
Verified
Journal Article
Open access
ALAlfred Larsson
Alfred Larsson
GDGiulio D’acunto
Giulio D’acunto
Mariya VorobyovaMariya Vorobyova
Mariya Vorobyova
GAGiuseppe Abbondanza
Giuseppe Abbondanza
ULUlrich Lienert
Ulrich Lienert
ELEdvin Lundgren
Edvin Lundgren

10 July 2023 in Materials
Verified
Journal Article
Open access
PDF file
Mariya VorobyovaMariya Vorobyova
Mariya Vorobyova
FBFabio Biffoli
Fabio Biffoli
Walter GiurlaniWalter Giurlani
Walter Giurlani
Stefano Mauro MartinuzziStefano Mauro Martinuzzi
Stefano Mauro Martinuzzi
MLMaximilian Linser
Maximilian Linser
Massimo InnocentiMassimo Innocenti
Massimo Innocenti
Physical Vapor Deposition (PVD) is a widely utilized process in various industrial applications, serving as a protective and hard coating. However, its presence in fields like fashion has only recently emerged, as electroplating processes had previously dominated this reality. The future looks toward the replacement of the most hazardous and toxic electrochemical processes, especially those involving Cr(VI) and cyanide galvanic baths, which have been restricted by the European Union. Unfortunately, a complete substitution with PVD coatings is not feasible. Currently, the combination of both techniques is employed to achieve new aesthetic features, including a broader color range and diverse textures, rendering de facto PVD of primary interest for the decorative field and the fashion industry. This review aims to outline the guidelines for decorative industries regarding PVD processes and emphasize the recent advancements, quality control procedures, and limitations.

28 August 2024 in Heliyon
Verified
Journal Article
Open access
RERoberta Emanuele
Roberta Emanuele
ACAndrea Comparini
Andrea Comparini
MVMargherita Verrucchi
Margherita Verrucchi
IPIvan Del Pace
Ivan Del Pace
AMArianna Meoli
Arianna Meoli
MIMassimo Innocenti
Massimo Innocenti
Electroplating can induce nickel release even from 316L stainless steel, typically considered safe. In this work, the influence of different electroplating processes and surface treatments on nickel release was evaluated. The nickel release was tested according to the EN 1811 standard. The impact of surface roughness on nickel release was assessed by comparing polished and unpolished samples. Results indicate that internal stresses can worsen nickel release, while increasing the thickness of the precious metal layer is beneficial. To corroborate our hypothesis, it was verified that coatings obtained through physical vapor deposition (PVD), without removing the passivation layer of the steel, did not release nickel. For these reasons, we identified the main cause of nickel release as the combined effect of the removal of the passivation layer of stainless steel and the microporosity of the electroplating process.