Arvydas Lubys
Research Subjects
Research Interests
Arvydas Lubys has a total of 6 co-authors. Here are the top co-authors by number of shared publications:
- Edita Kriukienė
Vilnius University
1 shared publication Jolanta Giedrienė
Institute of Biotechnology, V. Graičiūno 8, LT-02241, Vilnius, Lithuania; and
1 shared publicationJurgita Šerkšnaitė
Fermentas UAB, V. Graičiūno 8, LT-02241, Vilnius, Lithuania
1 shared publicationRimantas Sapranauskas
Institute of Biotechnology, Vilnius, Lithuania
1 shared publicationSonata Jurėnaitė-Urbanavičienė
Institute of Biotechnology, V. Graiciūno 8, LT-02241, Vilnius, Lithuania
1 shared publication- Česlovas Venclovas
Institute of Biotechnology, Life Sciences Center, Vilnius University, Vilnius, Lithuania
1 shared publication
Latest Publications
- 19 June 2007
- Published by National Academy of Sciences in Proceedings of the National Academy of Sciences
- Vol. 104 (25) , 10358-10363
Generation of DNA cleavage specificities of type II restriction endonucleases by reassortment of target recognition domains
Type II restriction endonucleases (REases) cleave double-stranded DNA at specific sites within or close to their recognition sequences. Shortly after their discovery in 1970, REases have become one of the primary tools in molecular biology. However, the list of available specificities of type II REases is relatively short despite the extensive search for them in natural sources and multiple attempts to artificially change their specificity. In this study, we examined the possibility of generating cleavage specificities of REases by swapping putative target recognition domains (TRDs) between the type IIB enzymes AloI, PpiI, and TstI. Our results demonstrate that individual TRDs recognize distinct parts of the bipartite DNA targets of these enzymes and are interchangeable. Based on these properties, we engineered a functional type IIB REase having previously undescribed DNA specificity. Our study suggests that the TRD-swapping approach may be used as a general technique for the generation of type II enzymes with predetermined specificities.
- 19 June 2007
- Published by National Academy of Sciences in Proceedings of the National Academy of Sciences
- Vol. 104 (25) , 10358-10363
Generation of DNA cleavage specificities of type II restriction endonucleases by reassortment of target recognition domains
Type II restriction endonucleases (REases) cleave double-stranded DNA at specific sites within or close to their recognition sequences. Shortly after their discovery in 1970, REases have become one of the primary tools in molecular biology. However, the list of available specificities of type II REases is relatively short despite the extensive search for them in natural sources and multiple attempts to artificially change their specificity. In this study, we examined the possibility of generating cleavage specificities of REases by swapping putative target recognition domains (TRDs) between the type IIB enzymes AloI, PpiI, and TstI. Our results demonstrate that individual TRDs recognize distinct parts of the bipartite DNA targets of these enzymes and are interchangeable. Based on these properties, we engineered a functional type IIB REase having previously undescribed DNA specificity. Our study suggests that the TRD-swapping approach may be used as a general technique for the generation of type II enzymes with predetermined specificities.
- Open Access
- 1 September 2005
- Published by Taylor & Francis in BioTechniques
- Vol. 39 (3) , 395-402
Random Gene Dissection: A Tool for the Investigation of Protein Structural Organization
To investigate the domain structure of proteins and the function of individual domains, proteins are usually subjected to limited proteolysis, followed by isolation of protein fragments and determi... Dissecting Table Unless they are based at a medical school and like to wander around the basement, most biochemists never come very close to a dissection theater. Though they may not be deft with a...
- 1 September 2005
- Published by Taylor & Francis in BioTechniques
- Vol. 39 (3) , 395-402
Open AccessRandom Gene Dissection: A Tool for the Investigation of Protein Structural Organization
To investigate the domain structure of proteins and the function of individual domains, proteins are usually subjected to limited proteolysis, followed by isolation of protein fragments and determi... Dissecting Table Unless they are based at a medical school and like to wander around the basement, most biochemists never come very close to a dissection theater. Though they may not be deft with a...