Ubiquitin ligases in hormone signaling published in Plant Physiology

Read the #2 Plant Physiology article based on number of mentions during the past month. With 29 mentions: UPDATE: Structural Aspects of Plant Hormone Signal Perception and Regulation by Ubiquitin Ligases @ShabekLab #Receptors #Signaling #PlantBiology https://t.co/ErksEAJLGi pic.twitter.com/vjK2pAUIFx— Plant Physiology (@PlantPhys) February 3, 2020 The lab’s paper titled “Structural Aspects of Plant Hormone Signal Perception and

Isabella Glenn awarded TGIF grant

Congratulations to Isabella Glenn, an undergraduate student researcher in the Shabek lab, for being awarded a TGIF grant from UC Davis! TGIF, The Green Initiative Fund, supports student-led projects that aim to improve sustainability on campus and beyond. The TGIF grant will provide funds to enable her to perform her research in our lab. Way

Avalon Miller, Isabella Glenn, and Sam Deck awarded Provost’s Undergraduate Fellowships

We are proud to announce that three Shabek Lab undergraduate student researchers were awarded the Spring 2019 Provost’s Undergraduate Fellowship (PUF) from the UC Davis Undergraduate Research Center! These competitive fellowships enable students to pursue research or creative activities under the guidance of UC Davis faculty members. Congratulations to Avalon Miller, Isabella Glenn, and Sam

Alex Kehl awarded UC Davis MARC/BSHARP fellowship

Congratulations to Alex Kehl, an undergraduate student researcher in the Shabek lab, for being accepted into the UC Davis Maximizing Access to Research Careers/Biology Scholars Advanced Research Program (MARC/BSHARP)! The MARC/BSHARP program provides support and intensive research experience to exceptional undergraduate students from disadvantaged or underrepresented backgrounds. As part of this program, Alex will be

D3-D14 Ub Ligase Research Published in Nature

Dr. Shabek’s work demonstrating structural plasticity of the D3–D14 ubiquitin ligase in strigolactone signaling is published in Nature! These findings reveal how D3 can utilize two distinct structural states to control strigolactone signaling. In its closed form, D3 binds to inactive D14. However, in its open conformation, D3 binds to hormone-bound D14 to enable strigolactone