Plastid genome and nuclear ribosomal DNA (nrDNA) arrays, proposed recently as “super‐
barcodes,” might provide additional discriminatory power and overcome the limitations of …

Standard plant DNA barcodes based on 2–3 plastid regions, and nrDNA ITS show variable
levels of resolution, and fail to discriminate among species in many plant groups. Genome …

Present study was designed to verify which or if any of plastome loci is a hotspot region for
mutations and hence might be useful for molecular species identification in feather grasses …

The aim of DNA barcoding is to enable fast and accurate species identification. However,
universal plant DNA barcodes often do not provide species-level discrimination, especially …

It has been suggested that rbcL and matK are the core barcodes in plants, but they are not
powerful enough to distinguish between closely related plant groups. Additional barcodes …

Background DNA barcoding promises to revolutionize the way taxonomists work, facilitating
species identification by using small, standardized portions of the genome as substitutes for …

Schima is an ecologically and economically important woody genus in tea family
(Theaceae). Unresolved species delimitations and phylogenetic relationships within Schima …

Aceraceae is a large forest tree family that comprises many economically and ecologically
important species. However, because interspecific and/or intraspecific morphological …

Plants from the Zingiberaceae family are a key source of spices and herbal medicines.
Species identification within this group is critical in the search for known and possibly novel …

Complete plastid genome (plastome) sequences and nuclear ribosomal DNA (nrDNA)
regions have been proposed as candidates for the next generation of DNA barcodes for …