DNA is usually known as the molecule that carries the instructions necessary for cell functioning and genetic inheritance. A recent discovery reported a new functional role for extracellular DNA. After fragmentation, either by natural or artificial decomposition, small DNA molecules (between ~50 and ~2000 bp) exert a species specific inhibitory effect on individuals of the same species. Evidence shows that such effect occurs for a wide range of organisms, suggesting a general biological process. In this paper we explore the possible molecular mechanisms behind those findings and discuss the ecological implications, specifically those related to plant species coexistence
Self-dna inhibitory effects: Underlying mechanisms and ecological implications / Carteni', Fabrizio; Bonanomi, Giuliano; Giannino, Francesco; Incerti, Guido; Vincenot, Christian Ernest; Chiusano, MARIA LUISA; Mazzoleni, Stefano. - In: PLANT SIGNALING & BEHAVIOR. - ISSN 1559-2316. - 11:4(2016), pp. 1-12. [10.1080/15592324.2016.1158381]
Self-dna inhibitory effects: Underlying mechanisms and ecological implications
CARTENI', FABRIZIO;BONANOMI, GIULIANO;GIANNINO, FRANCESCO;INCERTI, Guido;CHIUSANO, MARIA LUISA;MAZZOLENI, STEFANO
2016
Abstract
DNA is usually known as the molecule that carries the instructions necessary for cell functioning and genetic inheritance. A recent discovery reported a new functional role for extracellular DNA. After fragmentation, either by natural or artificial decomposition, small DNA molecules (between ~50 and ~2000 bp) exert a species specific inhibitory effect on individuals of the same species. Evidence shows that such effect occurs for a wide range of organisms, suggesting a general biological process. In this paper we explore the possible molecular mechanisms behind those findings and discuss the ecological implications, specifically those related to plant species coexistenceI documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.