Machine learning using intrinsic genomic signatures for rapid classification of novel pathogens: COVID-19 case study GS Randhawa, MPM Soltysiak, H El Roz, CPE de Souza, KA Hill, L Kari Plos one 15 (4), e0232391, 2020 | 458 | 2020 |
The many facets of natural computing L Kari, G Rozenberg Communications of the ACM 51 (10), 72-83, 2008 | 345 | 2008 |
DNA computing: arrival of biological mathematics L Kari Mathematical Intelligencer 19 (2), 9-22, 1997 | 305 | 1997 |
On insertion and deletion in formal languages. L Kari | 218 | 1993 |
The evolution of cellular computing: nature’s solution to a computational problem LF Landweber, L Kari Biosystems 52 (1-3), 3-13, 1999 | 202 | 1999 |
Contextual insertions/deletions and computability L Kari, G Thierrin Information and computation 131 (1), 47-61, 1996 | 191 | 1996 |
Computationally universal P systems without priorities: two catalysts are sufficient R Freund, L Kari, M Oswald, P Sosík Theoretical Computer Science 330 (2), 251-266, 2005 | 182 | 2005 |
DNA computing, sticker systems, and universality L Kari, G Păun, G Rozenberg, A Salomaa, S Yu Acta Informatica 35, 401-420, 1998 | 181 | 1998 |
Parallel communicating grammar systems - the regular case G Paun, L Santean Analele Universitatii din Bucuresti. Seria Matematica-Informatica 2, 55-63, 1989 | 173 | 1989 |
Secret ballot elections in computer networks H Nurmi, A Salomaa, L Santean Computers and Security 10 (6), 553-560, 1991 | 168 | 1991 |
DNA computing based on splicing: The existence of universal computers R Freund, L Kari, G Păun Theory of Computing Systems 32, 69-112, 1999 | 159 | 1999 |
Test tube distributed systems based on splicing EC Varjú, L Kari, G Paun Computing and Informatics 28 (1), 2012 | 141 | 2012 |
The spectrum of genomic signatures: from dinucleotides to chaos game representation Y Wang, K Hill, S Singh, L Kari Gene 346, 173-185, 2005 | 131 | 2005 |
L systems L Kari, G Rozenberg, A Salomaa Handbook of Formal Languages: Volume 1 Word, Language, Grammar, 253-328, 1997 | 123 | 1997 |
An open-source k-mer based machine learning tool for fast and accurate subtyping of HIV-1 genomes S Solis-Reyes, M Avino, A Poon, L Kari PloS one 13 (11), e0206409, 2018 | 100 | 2018 |
Universal molecular computation in ciliates LF Landweber, L Kari Evolution as Computation: DIMACS Workshop, Princeton, January 1999, 257-274, 2002 | 95 | 2002 |
Using DNA to solve the bounded post correspondence problem L Kari, G Gloor, S Yu Theoretical Computer Science 231 (2), 193-203, 2000 | 82 | 2000 |
On language equations with invertible operations L Kari Theoretical Computer Science 132 (1-2), 129-150, 1994 | 82 | 1994 |
At the crossroads of DNA computing and formal languages: Characterizing RE using insertion-deletion systems L Kari Proc. 3rd DIMACS Workshop on DNA Based Computing, Philadelphia, 1997, 1997 | 80 | 1997 |
DNA computing based on splicing: universality results E Csuhaj-Varju, R Freund, L Kari, G Paun First Annual Pacific Symposium on Biocomputing, Hawaii, 1996 | 80 | 1996 |