Time filter

Source Type

Gainesville, FL, United States

Sharman J.L.,University of Edinburgh | Gerloff D.L.,Foundation for Applied Molecular Evolution
Bioinformatics | Year: 2013

Summary: The Malaria Genome Exploration Tool (MaGnET) is a software tool enabling intuitive 'exploration-style' visualization of functional genomics data relating to the malaria parasite, Plasmodium falciparum. MaGnET provides innovative integrated graphic displays for different datasets, including genomic location of genes, mRNA expression data, protein-protein interactions and more. Any selection of genes to explore made by the user is easily carried over between the different viewers for different datasets, and can be changed interactively at any point (without returning to a search). © The Author 2013. Source

Kim M.J.,Foundation for Applied Molecular Evolution
Synthetic Communications | Year: 2010

Recently, 2′-C-methyl nucleoside analogues have been reported to exhibit potent anti-hepatitis C virus (HCV) activity through inhibition of HCV RNA replication without significant cytotoxicity. As a part of our continuous efforts of searching for novel antiviral agents, we now report the synthesis of heterobase-modified 2′-C-methyl ribonucleoside analogues. Copyright © Taylor & Francis Group, LLC. Source

Braun W.,University of Texas Medical Branch | Schein C.H.,Foundation for Applied Molecular Evolution
Structure | Year: 2014

In this issue of Structure, Trésaugues and colleagues determined the interaction of membrane-bound phosphoinositides with three clinically significant human inositol polyphosphate 5-phosphatases (I5Ps). A comparison to the structures determined with soluble substrates revealed differences in the binding mode and suggested how the I5Ps and apurinic endonuclease (APE1) activities evolved from the same metal-binding active center. © 2014 Elsevier Ltd. Source

Moussatche P.,Foundation for Applied Molecular Evolution | Lyons T.J.,Foundation for Applied Molecular Evolution
Biochemical Society Transactions | Year: 2012

The steroid hormone progesterone regulates many critical aspects of vertebrate physiology. The nuclear receptor for progesterone functions as a ligand-activated transcription factor, directly regulating gene expression. This type of signalling is referred to as the 'genomic' pathway. Nevertheless, progesterone also stimulates rapid physiological effects that are independent of transcription. This pathway, termed 'nongenomic', is mediated by the mPRs (membrane progesterone receptors). These mPRs belong to a larger class of membrane receptors called PAQRs (progestin and adipoQ receptors), which include receptors for adiponectin in vertebrates and osmotin in fungi. mPRs have been shown to activate inhibitory G-proteins, suggesting that they act as GPCRs (G-protein-coupled receptors). However, PAQRs do not resemble GPCRs with respect to topology or conserved sequence motifs. Instead, they more closely resemble proteins in the alkaline ceramidase family and they may possess enzymatic activity. In the present paper, we highlight the evidence in support of each model and what is currently known for PAQR signal transduction of this non-canonical receptor. ©The Authors Journal compilation ©2012 Biochemical Society. Source

Carrigan M.A.,Santa Fe College | Uryasev O.,Foundation for Applied Molecular Evolution | Frye C.B.,Foundation for Applied Molecular Evolution | Eckman B.L.,Foundation for Applied Molecular Evolution | And 3 more authors.
Proceedings of the National Academy of Sciences of the United States of America | Year: 2015

Paleogenetics is an emerging field that resurrects ancestral proteins from now-extinct organisms to test, in the laboratory, models of protein function based on natural history and Darwinian evolution. Here, we resurrect digestive alcohol dehydrogenases (ADH4) from our primate ancestors to explore the history of primate-ethanol interactions. The evolving catalytic properties of these resurrected enzymes show that our ape ancestors gained a digestive dehydrogenase enzyme capable of metabolizing ethanol near the time that they began using the forest floor, about 10 million y ago. The ADH4 enzyme in our more ancient and arboreal ancestors did not efficiently oxidize ethanol. This change suggests that exposure to dietary sources of ethanol increased in hominids during the early stages of our adaptation to a terrestrial lifestyle. Because fruit collected from the forest floor is expected to contain higher concentrations of fermenting yeast and ethanol than similar fruits hanging on trees, this transition may also be the first time our ancestors were exposed to (and adapted to) substantial amounts of dietary ethanol. Source

Discover hidden collaborations