DNA |
DNA-Micellar nanoparticles |
Molecule–molecule interactions |
Treating eye infections |
[54] |
Ca2+/(Alg/PEI/DNA) nanoparticles |
Molecule–molecule interactions |
Gene therapy for cancer |
[57] |
DNA nanoparticles |
Molecule–molecule/material recognition |
Drug-resistance |
[58] |
DNA nanoparticles |
Molecule–molecule/material recognition |
Tumor-targeted delivery |
[59] |
DNA Nanofiber |
Molecule-mediated nucleation and growth |
– |
[60] |
DNA Nanofiber |
Molecule–molecule interactions |
Traceable gene delivery |
[61] |
DNA-Linked Nanoparticle Films |
Molecule-mediated nucleation and growth |
Traceable gene delivery |
[62] |
Au NP-embedded SDNA thin films |
Drop-casting method |
UV photodetectors |
[65] |
DNA-derived carbon dots |
Hydrothermal synthesis |
Electrochemical sensing |
[67] |
RNA |
RNA triangular nano-scaffolds |
Molecule–molecule interactions |
Treating myocardial infarction |
[71] |
RNA nanoparticles |
Molecule–molecule/material recognition |
– |
[72] |
Peptide |
Exosome/PGN hydrogel |
Molecule–molecule interactions |
Treating myocardial infarction |
[84] |
Nano micelles |
Molecule–molecule interactions |
Targeting drug delivery system for breast cancer treatment |
[86] |
Protein |
CUR/PTX@RSF/zein nanospheres |
Molecule-mediated nucleation and growth |
Cancer treatment |
[87] |
rGO/BSA-AuNC platform |
Biomolecule-medicated oxidization/reduction process |
Detection of activity and concentration of trypsin |
[89] |
PDA |
PDA-PSB co-deposition surface coating |
co-deposition |
Anti-fouling coating of neural probes |
[91] |
PDA-Pt nanocomposite |
Biomolecule-medicated oxidization/reduction process |
Catalysis |
[95] |
Enzyme |
FePorMOF/Gox CL system |
FeP/ C nanosheets |
Chemiluminescence |
[97] |
silica@CAT/ZIF-8 nanocomposites |
– |
Biocatalyst |
[98] |
TaOx@CAT NPs |
A one-pot method |
Radiotherapy |
[99] |