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Full-Text Articles in Life Sciences
Halotolerant Rhizosphere Bacteria: Isolation Of Rhizosphere Bacteria From Native Utah Plant Ceanothus Velutinus, Alyssa Nielsen
Halotolerant Rhizosphere Bacteria: Isolation Of Rhizosphere Bacteria From Native Utah Plant Ceanothus Velutinus, Alyssa Nielsen
Fall Student Research Symposium 2021
Increasing incidences of drought forced farmers to use the secondary, degraded water for irrigation. These water sources are rich in salt concentrations. This project has started with the hopes of finding bacteria from the rhizosphere of a native to Utah plant, Ceanothus velutinus, that helps the plant survive the saltier conditions of Utah. The rhizosphere, a layer of soil attached to the roots of a plant, contains microorganisms that may contribute to the plants' abiotic and biotic stress resistance. These microorganisms are known as Plant Growth Promoting Rhizobacteria (PGPR). The roots and rhizosphere samples were collected from Tony Grove in …
Identification And Isolation Of Halotolerant Endophytes In Ceanothus Velutinus May Lead To Plant Health In Saline Conditions, Katherine Hewitt
Identification And Isolation Of Halotolerant Endophytes In Ceanothus Velutinus May Lead To Plant Health In Saline Conditions, Katherine Hewitt
Fall Student Research Symposium 2021
Plant-microbe relations are integral to plant survival and crop productivity. Part of a plant’s biosphere are endophytes, microbes found between the cells of a plant. Endophytes can be beneficial to help a plant cope with abiotic stressors such as salinity. In Utah, our soils are high in salinity due to topography and climate. Climate change has increased soil salinity across the world, and water availability is becoming scarcer leading agriculture to use more saline sources to irrigate. Thus, salt is a concern for farmers. We aim to identify halotolerant endophytes from Ceanothus velutinus, Snowbrush which is native to the …
An Exploration Of Fern Genome Space, Paul G. Wolf, Emily B. Sessa, D. Blaine Marchant, Fay-Wei Li, Carl J. Rothfels, Erin M. Sigel, Mathew A. Gitzendanner, Clayton J. Visger, Jo Ann Banks, Douglas E. Soltis, Pamela S. Soltis, Kathleen M. Pryer, Joshua P. Der
An Exploration Of Fern Genome Space, Paul G. Wolf, Emily B. Sessa, D. Blaine Marchant, Fay-Wei Li, Carl J. Rothfels, Erin M. Sigel, Mathew A. Gitzendanner, Clayton J. Visger, Jo Ann Banks, Douglas E. Soltis, Pamela S. Soltis, Kathleen M. Pryer, Joshua P. Der
An Exploration of Fern Genome Space
Ferns are one of the few remaining major clades of land plants for which a complete genome sequence is lacking. Knowledge of genome space in ferns will enable broad-scale comparative analyses of land plant genes and genomes, provide insights into genome evolution across green plants, and shed light on genetic and genomic features that characterize ferns, such as their high chromosome numbers and large genome sizes. As part of an initial exploration into fern genome space, we used a whole genome shotgun sequencing approach to obtain low-density coverage (1X to 2X) for six fern species from the Polypodiales (Ceratopteris …