Search for: All records

Societal Impact StatementAs herbaria digitize millions of plant specimens, ethnobotanical information associated with them is becoming increasingly accessible. These biocultural data include plant uses, names, and/or management practices of Indigenous Peoples and Local Communities (IPLCs). However, the absence of shared curatorial standards limits accessibility and use by IPLCs and others. We estimated and characterized ethnobotanical data associated with herbarium specimens and provide here key considerations for future work. We identified a proportionally small, yet collectively significant, number of ethnobotanical specimens, and call for coordinating best practices among global herbaria to locate, acknowledge, and responsibly share this information, together with source communities. SummaryAs herbaria digitize millions of plant specimens, those containing biocultural information are becoming increasingly accessible. This information — also known as ethnobotanical data — holds both cultural and scientific value, and may include plant uses, vernacular names, local species concepts, cultural values, and plant management practices of Indigenous Peoples and Local Communities (IPLCs). However, the lack of coordinated curatorial standards currently limits both the accessibility and effective use of this information by IPLCs, ethnobotanists, and others.To address this gap, we quantitatively estimated and characterized ethnobotanical information associated with herbarium specimens and offer key considerations to guide future work.We identified a proportionally small —yet collectively significant— number of ethnobotanical specimens, comprising approximately 1.6% of all specimen records and representing hundreds of thousands of specimens in the surveyed herbaria.We advocate for coordinating best practices to locate, acknowledge, and ethically share this information among herbaria, working together with source communities and through global cooperation. 

The first genome sequenced of a eukaryotic organism was for Saccharomyces cerevisiae, as reported in 1996, but it was more than 10 years before any of the zygomycete fungi, which are the early-diverging terrestrial fungi currently placed in the phyla Mucoromycota and Zoopagomycota, were sequenced. The genome for Rhizopus delemar was completed in 2008; currently, more than 1000 zygomycete genomes have been sequenced. Genomic data from these early-diverging terrestrial fungi revealed deep phylogenetic separation of the two major clades—primarily plant—associated saprotrophic and mycorrhizal Mucoromycota versus the primarily mycoparasitic or animal-associated parasites and commensals in the Zoopagomycota. Genomic studies provide many valuable insights into how these fungi evolved in response to the challenges of living on land, including adaptations to sensing light and gravity, development of hyphal growth, and co-existence with the first terrestrial plants. Genome sequence data have facilitated studies of genome architecture, including a history of genome duplications and horizontal gene transfer events, distribution and organization of mating type loci, rDNA genes and transposable elements, methylation processes, and genes useful for various industrial applications. Pathogenicity genes and specialized secondary metabolites have also been detected in soil saprobes and pathogenic fungi. Novel endosymbiotic bacteria and viruses have been discovered during several zygomycete genome projects. Overall, genomic information has helped to resolve a plethora of research questions, from the placement of zygomycetes on the evolutionary tree of life and in natural ecosystems, to the applied biotechnological and medical questions.