If your DNA is a cookbook of “recipes” your cells could make, microRNAs help decide what’s for dinner.
Cataloguing viruses in bats and other animals may help predict or trace viral transmission to humans in the future.
Many molecules can decrease enzymatic breakdown of our body’s natural painkillers…but which one is fit to be the best new drug?
Infected cattle can transmit E. coli to humans through contaminated ground beef, but scientists are looking for a solution.
Developing a drug that is able to enter the cell and interact with its target is no mean feat, especially for large molecules. Read about how this group ‘masked’ large molecules to improve their cell permeability.
While most scientists search for specific treatments for viruses like Ebola, Zika and SARS-Cov-2, non-specific methods can have broad impact. Researchers from the United States and Germany joined forces to make non-specific molecular “tweezers” that pluck pieces out of its membrane, leading to disintegrating and dead viruses.
The earthy smell of soil originates from the bacteria that live there. But why do they produce this particular scent?
When cooking an egg, heat denatures proteins in the egg. How does a thermophilic bacteria prevent its proteins from denaturing too?
Appreciating the 3D structure of the tiny chemical compounds we work with can be really difficult – but what if you could project the structure onto your living room floor?
Antibiotics are lifesaving, but current practices don’t keep them from accumulating in the environment where they can damage nature and human health. A new antibiotic design aims to solve this problem.
The COVID-19 pandemic is consuming our news feed at the moment – while you’re self-isolating read about some of the great science research going on to combat our newest virus.
Antibodies in your body help fight disease by specifically targeting a viral or bacterial strain. This specificity makes antibodies useful for disease detection, but how do scientists reduce the chance of false positives and false negatives?
As nanotechnology is developed into drugs for human health, scientists need to study nanoparticle clearance rates from the body.
DNA is the instruction manual for how to produce an organism, one gene at a time. But our heart cells, liver cells, and brain cells are different, despite having the same DNA, thanks in part to the “epigenetic” modifications that control which genes are expressed.
DNA can be more than just the genetic code. Can four specially designed strands of DNA destroy cancer cells?
Just as interesting as the detail of how the antibacterial molecules works can be the new methods by which they are discovered. Today’s Chembite is about the development of antibacterial agents in the fight against an infectious bacterium.
While discovery of new complexes can be difficult, this group at Cambridge has developed “cube traps” and effectively synthesized a molecule atkin to a molecular fidget spinner!
The controversy over TiO2’s hydrophilic/hydrophobic transition has been examined in new detail – with researchers concluding that atmospheric molecules can attach onto TiO2’s surface, changing its chemical properties.
Aberrant enzyme activity drives many types of cancer and other human diseases. Traditional drugs targeting such enzymes face a variety of challenges. Here, researchers use a new small molecule “degrader” to destroy an enzyme involved in cancer.
A new form of DNA was found in vivo. It can be a way to regulate the DNA replication and thus prevent the replication of tumor cells.
Human odors and skin oils can be detected by hand-held sensors in order to aid in urban search and rescue efforts.
In this article, explore the tiny molecules that could be used for computational work in future of smartphones! Inspired by your own body, machines made from molecules could be the next generation of computers!