The beneficial or deleterious effects of nanomedicines emerge from their complex
interactions with intracellular pathways and their subcellular fate. Moreover, the dynamic …

In recent years, there has been an increasing use of engineered magnetic nanoparticles for
remediation and water treatments, leading to elevated public concerns. To this end, it is …

The interaction of nanomaterials with cells and lipid bilayers is critical in many applications
such as phototherapy, imaging, and drug/gene delivery. These applications require a firm …

Proteins bind the surfaces of nanoparticles, and biological materials in general, immediately
upon introduction of the materials into a physiological environment. The further biological …

Antibiotics were once the golden bullet to constrain infectious bacteria. However, the rapid
and continuing emergence of antibiotic resistance (AR) among infectious microbial …

Over the last few decades, nanocarriers for drug delivery have emerged as powerful tools
with unquestionable potential to improve the therapeutic efficacy of anticancer drugs. Many …

Injectable drug nanocarriers have greatly benefited in their clinical development from the
addition of a superficial hydrophilic corona to improve their cargo pharmacokinetics. The …

Due to their small particle size and large and modifiable surface, nanoparticles have unique
advantages compared with other drug carriers. As a research focus in recent years …

Nanoparticles rapidly interact with the proteins present in biological fluids, such as blood.
The proteins that are adsorbed onto the surface potentially dictate the biokinetics of the …

In recent years, there has been great progress in the understanding of tumor biology and its
surrounding microenvironment. Solid tumors create regions with low oxygen levels …