The Spring 2021 PRI seminar series speakers start on March 8, see the full schedule here. All talks will be on Monday at 1 PM.
The PRI has two openings for postdoctoral fellows in plant resilience. Fellows will be expected to develop a cutting-edge research program in the area of plant resilience that bridges the interests of two or more PRI faculty members. See here for more details.
A project led in part by Plant Resilience Institute members Brad Day and David Kramer have been awarded a $250,000 grant by the Asian Development Bank (ADB). The grant award supports Asian and Pacific universities in their efforts to establish partnerships with renowned foreign universities. Scientists from MSU and Rajarata University will conduct joint activities in the area of smart agriculture, ranging from fundamental genomics and chemistry, to student training and curriculum-based activities.
The lab of Thomas D. Sharkey have characterized a sucrose transporter protein found in common beans. The recently discovered protein, called PvSUT1.1, could help us understand how beans tolerate hot temperatures.
Building on years of breakthrough research, Michigan State University biochemist and Associate Director of the Plant Resilience Institute Thomas Sharkey has received a four-year, $898,946 grant from the National Science Foundation (NSF) to continue his research on isoprene emission from plants. The four-year grant will focus on the evolutionary pattern of the appearance and loss of isoprene emission among various land plants, and the impact of these emissions have on the atmosphere.
In a new study published in PNAS, PRI scientists led by Horticulture-Plant Resilience Institute faculty member Robert VanBuren show that some grasses can survive typically lethal drought events through entering a dormant, desiccated state until the return of water. In the study, the team aimed to find what distinguishes this unique desiccation tolerance response from conserved drought responses observed in all grasses. They identified genomic and expression changes distinguishing the desiccation-tolerant grass Eragrostis nindensis from its sensitive crop relative Eragrostis tef and then expanded these analyses to include several cereals to identify broadly conserved and divergent patterns during water-deficit stress. They found that the distinction between drought and desiccation in grasses is subtle, where genes with essential roles in seed development are broadly expressed during water-deficit stress. They propose that many of the pathways enabling desiccation tolerance are of ancient origin with universal roles in water deficit, and are conserved across grasses.