Thilini U. Ariyadasa

Prof. Thilini U. Ariyadasa


Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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1 March 2019 in Food Chemistry
Verified
Journal Article
Closed access
MRM.N. Rammuni
M.N. Rammuni
TAThilini U. Ariyadasa
Thilini U. Ariyadasa
PNP.H.V. Nimarshana
P.H.V. Nimarshana
RAR.A. Attalage
R.A. Attalage

1 September 2021 in Biochemical Engineering Journal
Verified
Journal Article
Closed access
VLVinoj Chamilka Liyanaarachchi
Vinoj Chamilka Liyanaarachchi
GNGannoru Kankanamalage Sanuji Hasara Nishshanka
Gannoru Kankanamalage Sanuji Hasara Nishshanka
MSMyrsini Sakarika
Myrsini Sakarika
PNP.H.V. Nimarshana
P.H.V. Nimarshana
TAThilini U. Ariyadasa
Thilini U. Ariyadasa
Michael KornarosMichael Kornaros
Michael Kornaros

1 December 2020 in Biotechnology Reports
Verified
Journal Article
Open access
VLVinoj Chamilka Liyanaarachchi
Vinoj Chamilka Liyanaarachchi
GNGannoru Kankanamalage Sanuji Hasara Nishshanka
Gannoru Kankanamalage Sanuji Hasara Nishshanka
RPRankoth Gedara Malith Malsha Premaratne
Rankoth Gedara Malith Malsha Premaratne
TAThilini U. Ariyadasa
Thilini U. Ariyadasa
PNPemaththu Hewa Viraj Nimarshana
Pemaththu Hewa Viraj Nimarshana
AMAnushree Malik
Anushree Malik
• Phosphate concentration and light stress notably affect astaxanthin productivity. • Combination of phosphate limitation and continuous light stress was most effective. • Combined stress increased cellular astaxanthin content up to 7 % by weight. • Specific light energy consumption was lowest under combined stress conditions.

4 July 2021 in Journal of Chemical Technology & Biotechnology
Verified
Journal Article
Closed access
PDF file
MPMalith Premaratne
Malith Premaratne
GNGksh Nishshanka
Gksh Nishshanka
VLVc Liyanaarachchi
Vc Liyanaarachchi
PNPhv Nimarshana
Phv Nimarshana
TAThilini U. Ariyadasa
Thilini U. Ariyadasa

11 April 2022 in Journal of Cleaner Production
Verified
Journal Article
Closed access
RVRashi Vishwakarma
Rashi Vishwakarma
VDVidushi Dhaka
Vidushi Dhaka
TAThilini U. Ariyadasa
Thilini U. Ariyadasa
AMAnushree Malik
Anushree Malik

13 November 2013 in Scientific Reports
Verified
Journal Article
Open access
CKCharanpreet Kaur
Charanpreet Kaur
AVAnchal Vishnoi
Anchal Vishnoi
TAThilini U. Ariyadasa
Thilini U. Ariyadasa
ABAlok Bhattacharya
Alok Bhattacharya
SSSneh Lata Singla-Pareek
Sneh Lata Singla-Pareek
SSSudhir Kumar Sopory
Sudhir Kumar Sopory
Glyoxalase pathway plays an important role in stress adaptation and many clinical disorders. The first enzyme of this pathway, glyoxalase I (GlxI), uses methylglyoxal as a substrate and requires either Ni(II)/Co(II) or Zn(II) for activity. Here we have investigated the origin of different metal ion specificities of GlxI and subsequent pattern of inheritance during evolution. Our results suggest a primitive origin of single-domain Ni dependent GlxI [Ni-GlxI]. This subsequently evolved into Zn activated GlxI [Zn-GlxI] in deltaproteobacteria. However, origin of eukaryotic Zn-GlxI is different and can be traced to GlxI from Candidatus pelagibacter and Sphingomonas. In eukaryotes GlxI has evolved as two-domain protein but the corresponding Zn form is lost in plants/higher eukaryotes. In plants gene expansion has given rise to multiple two-domain Ni-GlxI which are differentially regulated under abiotic stress conditions. Our results suggest that different forms of GlxI have evolved to help plants adapt to stress.