František Kukurugya

Dr. František Kukurugya

VITO, 200 Boeretang, 2400 Mol, Belgium;
orcid

Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

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

Representative Publications

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1 August 2016 in Hydrometallurgy
Verified
Journal Article
Closed access
ZTZita Takacova
Zita Takacova
THTomas Havlik
Tomas Havlik
FKFrantišek Kukurugya
František Kukurugya
Dusan OracDusan Orac
Dusan Orac

1 November 2010 in Journal of Hazardous Materials
Verified
Journal Article
Closed access
THTomas Havlik
Tomas Havlik
Dusan OracDusan Orac
Dusan Orac
MPM. Petranikova
M. Petranikova
AMA. Miskufova
A. Miskufova
FKFrantišek Kukurugya
František Kukurugya
ZTZ. Takacova
Z. Takacova


1 September 2011 in Journal of Hazardous Materials
Verified
Journal Article
Closed access
ZTZuzana Hoang Trung
Zuzana Hoang Trung
FKFrantišek Kukurugya
František Kukurugya
ZTZita Takacova
Zita Takacova
Dusan OracDusan Orac
Dusan Orac
Martina LaubertovaMartina Laubertova
Martina Laubertova
THTomas Havlik
Tomas Havlik

22 October 2019 in Minerals
Verified
Journal Article
Open access
PDF file
LHLiesbeth Horckmans
Liesbeth Horckmans
RMRobert Möckel
Robert Möckel
PNPeter Nielsen
Peter Nielsen
FKFrantišek Kukurugya
František Kukurugya
CVChristine Vanhoof
Christine Vanhoof
David AlgermissenDavid Algermissen
David Algermissen
The CHROMIC project (effiCient mineral processing and Hydrometallurgical RecOvery of by-product Metals from low-grade metal contaIning seCondary raw materials) aims to recover chromium from steelmaking and ferrochrome slags to regain valuable resources and simultaneously reduce potential environmental impacts. To develop the recovery flowsheets and reliably calculate metal recovery, an accurate assessment of chromium concentration and distribution is essential. Therefore, model streams were thoroughly characterized using a combination of analytical techniques. In all materials, chromium is present in distinct but often small spinel phases, intergrown with other minerals and showing a considerable zonation in Cr content with higher amounts in the cores. The small size of the Cr-rich particles makes recovery by mineral processing challenging. Measured chromium content was found to differ largely based on the chemical dissolution method applied. The analysis of insoluble residues and comparison with a standard reference material evidenced that standard acid dissolution procedures based on HCl/HNO3/HBF4 and HNO3/HF/H2O2 are insufficient to fully dissolve spinel structures, leading to severe underestimations of chromium content. A sodium peroxide treatment is required for a full dissolution of spinels. This is noteworthy, since most of the legislation for the reuse of slags is currently based on acid dissolution methods.

26 October 2017 in RSC Advances
Verified
Journal Article
Open access
PDF file
FFFederica Forte
Federica Forte
LHLiesbeth Horckmans
Liesbeth Horckmans
KBKris Broos
Kris Broos
EKEunyoung Kim
Eunyoung Kim
FKFrantišek Kukurugya
František Kukurugya
KBKoen Binnemans
Koen Binnemans
A solvometallurgical process based on acetic acid was developed for the recovery of lead from iron-rich residues (matte and slag).