biological molecules

It learns early on which biological molecules are "self" , in the sense that they are routine parts of the body it is protecting.

But quantum dots make it possible to tag a variety of biological molecules, each with a crystal of a different size (and hence color).

The energy in light photon in the visible part of the spectrum can be captured by biological molecules to do constructive work.

Nile red and nile blue derivatives with carboxyl or amino or hydroxyl group were synthesized, which were used to tag biological molecules.

Here, "everything" is the set of possible biological molecules, notably proteins.

Small biological molecules are basic elements of large biological molecules, and also the important participants in the activities of life.

The bad news is that these free radicals tend to oxidize biological molecules, just as iron oxidizes when it rusts.

Except that unfortunately, oxygen is actually toxic to biological molecules and cells.

For instance, many of the recent and upcoming anticancer drugs are custom-designed biological molecules.

Usually, though, the mirror image of biological molecules are weaker or have no effect. They can't shake hands with our proteins.

Proteins then go on to do the work of sustaining life. They manufacture other sorts of biological molecules, such as fats and sugars.

They are studied as models of biological molecules and have been shown to display antimicrobial activity.

Ultra-trace analysis of biological molecules in water by means of the resonance Raman spectra in liquid-core optical fiber

Application of Chemiluminescent Image to Biological Molecules Detection

New HPLC Separation Phases and Their Applications in Biological Molecules and Nanomaterials

The interaction analysis of biological molecules and small molecules by spectroscopy

Real-time FRET Monitoring of the Dynamics of Biological Molecules in Single Living Cell

Probing Free Radical Damage to Biological Molecules by Spin-labeling Fluorophore