We've updated our Privacy Policy to make it clearer how we use your personal data.

We use cookies to provide you with a better experience. You can read our Cookie Policy here.

Advertisement
Converting Alcohol Into Key Ingredients for New Medicines
News

Converting Alcohol Into Key Ingredients for New Medicines

Converting Alcohol Into Key Ingredients for New Medicines
News

Converting Alcohol Into Key Ingredients for New Medicines

Credit: Pixabay
Read time:
 

Want a FREE PDF version of This News Story?

Complete the form below and we will email you a PDF version of "Converting Alcohol Into Key Ingredients for New Medicines"

First Name*
Last Name*
Email Address*
Country*
Company Type*
Job Function*
Would you like to receive further email communication from Technology Networks?

Technology Networks Ltd. needs the contact information you provide to us to contact you about our products and services. You may unsubscribe from these communications at any time. For information on how to unsubscribe, as well as our privacy practices and commitment to protecting your privacy, check out our Privacy Policy

Chemists have found a way to turn alcohol into amino acids, the building blocks of life.

In a study published Monday in the journal Nature Chemistry, researchers explained the transformation, which involves selectively identifying and replacing molecular bonds with unprecedented precision. The finding may make it easier to create some medications by expanding the types of new amino acids that can be made to more quickly build those medicines.

“One of the coolest applications of this research is that we found a new way to make unnatural amino acids – sometimes used in medicines to target diseases while avoiding natural metabolism,” said David Nagib, a professor of chemistry at The Ohio State University and senior author of the paper. “And we may be able to use these unnatural amino acids to build new complex molecules that target various diseases.”

Amino acids, which make up our proteins, are also sometimes used as building blocks in medicines, but creating new, artificial ones with correct three-dimensional geometry in a laboratory for pharmaceutical purposes can be an expensive and lengthy process.

Alcohol, though, is plentiful and cheap.

To transform alcohol into amino acids, researchers played with alcohol at the atomic level. An alcohol molecule is made of three different elements – hydrogen, carbon and oxygen. The researchers found a way to break the bonds between specific carbon and hydrogen atoms to introduce a nitrogen atom, the other most common element found in nature and medicines – a type of laboratory wizardry called “selective C-H functionalization.”

“Carbon-hydrogen is the most ubiquitous bond – think of a field of grass in a park. Each piece of grass is a carbon-hydrogen bond, and the challenge of C-H functionalization is how do you pick the exact blade of grass you want to turn into a rose and ignore all the rest?” Nagib said. “How do you be selective about which bond you’re transforming?”

Being able to choose the right bond is important. When chemists build new medications, they use molecules carefully assembled in a specific way, to target only a disease and not other biologically important machinery. Think of the molecules in humans, bacteria or viruses as individual locks, and medicines as a key: A good medicine, or key, fits only in the right lock.

“In alcohol, there are pairs of equal carbon-hydrogen bonds, but those bonds are not equal in their spatial arrangement on the molecule,” Nagib said. “And now we can grab one of them over the others to make amines with various three-dimensional shapes, which will allow construction of new chemical structures to make drugs that may serve as a better key.”

Reference: Nakafuku, K.M. et al. (2020). Enantioselective radical C–H amination for the synthesis of β-amino alcohols. Nat. Chem. DOI: https://doi.org/10.1038/s41557-020-0482-8

This article has been republished from the following materials. Note: material may have been edited for length and content. For further information, please contact the cited source.

Advertisement