With a growing interest in the field of RNA-targeted therapeutics, robust platforms to study RNA small-molecule interactions are needed. Read about the latest endeavor here!
Mycobacteria are tough, pathogenic microbes that shield themselves with a hardy envelope known as the mycomembrane. Little is still known about the proteins that build or interact with this envelope, but these researchers are up to the challenge.
Their highly specialized roles of immune cells also mean they have molecular machineries that are a bit different from those in other cells, Find out here how researchers are using chemistry to advance our knowledge of one of such components, the immunoproteasome.
With a renewed interest in psilocybin — the psychedelic substance present in magic mushrooms — by the medical community, the Weng group at MIT sets up to study one of the enzymes that makes it.
A clever, two-part biocatalytic strategy grants access to products of reductive amination that can be troublesome to obtain through more traditional synthetic methods.
Proteins bear a staggering collection of small chemical modifications that have large effects on their function. This research provides an elegant method to study cysteine sulfinylation, a chemical mark that has proven to be pretty elusive.
Title: Synergistic effects of stereochemistry and appendages on the performance diversity of a collection of synthetic compounds Authors: Stu Schreiber et al. Journal: Journal of the American Chemical Society https://pubs.acs.org/doi/10.1021/jacs.8b07319 Year: 2018 The ability to rapidly evaluate what a chemical compound does to a cell, and…
Successful resistance to a viral infection requires the host to deploy incredibly intricate biological tactics that somehow selectively inhibit key processes in the viral lifecycle. In this paper, researchers delve deeper into the molecular mechanisms of one of such resistance mechanisms!
Microorganisms are particularly remarkable at churning out structurally challenging small molecules with interesting biological functions. In this work, an unprecedented chemical transformation in one such natural products is discovered and characterized.
Learn how researchers at Caltech artificially evolved proteins to synthesize some of the most challenging tiny molecules in organic chemistry!
Nucleic acids are incredibly versatile molecules that can perform functions way beyond their canonical roles in biology. Here, RNA sequences are “evolved” to bind and enhance the fluorescence of a small-molecule dye, welcoming the idea of RNA for robust fluorescence imaging!
Photoredox catalysis is at it again! This time it is used to synthesize polysubstituted aldehydes – highly useful building blocks – from readily available styrenes and vinyl ethers.
Read about this new approach to selectively install fluorines into proteins using a mild radical source.
The functional repertoire of lipids grows to more impressive heights as scientists continue to unravel the substantial functions of these biomacromolecules in cell biology.
Title: Electrocatalytic Radical Dichlorination of Alkenes with Nucleophilic Chlorine Sources Authors: Niankai Fu, Gregory S. Sauer, and Song Lin Journal: Journal of the American Chemical Society http://pubs.acs.org/doi/10.1021/jacs.7b09388 Year: 2017 The unsaturated bond of an alkene is one of the most exploited functionalities inside the organic chemist’s…
How do synthetic chemists use fundamental, yet robust reactions to chemicals stitch together smaller fragments large and complex natural products? The Porco’s Lab latest work might give you a taste of what it’s like to exercise the art of total synthesis with a hint of inspiration from biology.