Louwanda Lakiss

Dr. Louwanda Lakiss

orcid

Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

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

Representative Publications

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2 July 2013 in Chemistry of Materials
Verified
Journal Article
Closed access
ZQZ. Qin
Z. Qin
LLLouwanda Lakiss
Louwanda Lakiss
JGJ.-P. Gilson
J.-P. Gilson
KTK. Thomas
K. Thomas
JGJ.-M. Goupil
J.-M. Goupil
Valentin ValtchevValentin Valtchev
Valentin Valtchev

9 August 2013 in Advanced Functional Materials
Verified
Journal Article
Closed access
PDF file
ZQZhengxing Qin
Zhengxing Qin
LLLouwanda Lakiss
Louwanda Lakiss
Lubomira ToshevaLubomira Tosheva
Lubomira Tosheva
JGJean‐Pierre Gilson
Jean‐Pierre Gilson
AVAurélie Vicente
Aurélie Vicente
Valentin ValtchevValentin Valtchev
Valentin Valtchev

1 August 2015 in Journal of Catalysis
Verified
Journal Article
Closed access
LLLouwanda Lakiss
Louwanda Lakiss
FNFrancis Ngoye
Francis Ngoye
CCChristine Canaff
Christine Canaff
SLSébastien Laforge
Sébastien Laforge
YPYannick Pouilloux
Yannick Pouilloux
CFChristian Fernandez
Christian Fernandez

1 December 2014 in Journal of Catalysis
Verified
Journal Article
Closed access
FNF. Ngoye
F. Ngoye
LLLouwanda Lakiss
Louwanda Lakiss
ZQZ. Qin
Z. Qin
SLS. Laforge
S. Laforge
CCC. Canaff
C. Canaff
Ludovic PinardLudovic Pinard
Ludovic Pinard

1 January 2013 in Toxicology Research
Verified
Journal Article
Open access
PDF file
SLS. Laurent
S. Laurent
ENE.-P. Ng
E.-P. Ng
CTC. Thirifays
C. Thirifays
LLLouwanda Lakiss
Louwanda Lakiss
GGG.-M. Goupil
G.-M. Goupil
Morteza MahmoudiMorteza Mahmoudi
Morteza Mahmoudi
The toxicity of two types of ultra-small zeolites (8–18 nm) with LTL- and EMT-type structures is reported. Both the LTL- and EMT-type zeolites belong

29 July 2011 in Green Chemistry
Verified
Journal Article
Closed access
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GMGerardo Majano
Gerardo Majano
Eng-Poh NgEng-Poh Ng
Eng-Poh Ng
LLLouwanda Lakiss
Louwanda Lakiss
Svetlana MintovaSvetlana Mintova
Svetlana Mintova
Lubricants play a significant part in current environmental considerations since they are an integral and indispensable component of modern technology. The production, application and disposal of the lubricants have to follow increasingly strict requirements for protecting the environment and living organisms. In this respect, molecular sieve (LTL type zeolite) is investigated as a potential environmentally friendly alternative to traditional antioxidant additives for lubricant oils. Accelerated oxidation experiments using pure base oil and additivated base oil in the presence of the LTL molecular sieve are carried out in parallel, and the oxidation processes are monitored by FT-IR spectroscopy, spectrophotometry, chromatography, total acid number (TAN) and Karl-Fischer titrations. The LTL molecular sieve shows the potential of slowing down the oxidation rate of the oils and also resulted in a lower rate of production of solid polymeric residues. In addition, it is demonstrated that the mode of action of the LTL molecular sieve is different in nature in comparison to the organic counterparts (original antioxidants). The LTL type molecular sieve controls the water generation, while the amount of carboxylic acids is only affected in a modest amount. Apparently during the continuous oxidation of the lubricants, the zeolite adsorbs not only carboxylic acids but also other acid products such as alcohols, ketones and aldehydes. And more importantly, the LTL type molecular sieve has a greater influence in halting the steps which lead to the polymerization of the oils.