| Antiviral drug |
| Cages for drug delivery |
| Crystal engineering |
| Designing molecular capsules |
| Design of new antidotes |
| Diamondoid-DNA nanoarchitectures |
| Drug delivery (they can easily pass through blood-brain barrier due to their lipophilicity / hydrophobicity) |
| Drug targeting |
| Fighting infectious viral diseases (influenza etc.) |
| Fighting infectious bacterial diseases (tuberculosis, etc.) |
| Fighting infectious parasitic diseases (malaria, etc.) |
| Fighting cancer (new antineoplasic agents) |
| Gene delivery |
| Hypoglycemic action (drugs fordiabetes treatment, etc.) |
| In designing an artificial red blood cell, called Respirocyte |
| In host-guest chemistry and combinatorial chemistry |
| MEMS |
| Molecular machines |
| Molecular probe |
| Nanodevices |
| Nanorobotics |
| Nanofabrication |
| Nanocomposites |
| Nanomodule |
| NEMS |
| Neuroprotective effect (for Alzheimer`s disease, etc.) |
| Organic MBBs in formation of nanostructures |
| Pharmacophore-based drug design |
| Polymer, co-polymers |
| Positional assembly |
| Power cells overcharge protecting compounds |
| Preparation of fluorescent molecular probes |
| Prodrugs |
| Rational design of multifunctional drug systems and drug carriers |
| Self-assembly: DNA directed self-assembly, host-guest chemistry |
| Shape-targeted nanostructures |
| Synthesis of supramolecules with manipulated architecture |
| The only semiconductors which show a negative electron affinity |
| Microelectronics (thermally conductive films in integrated circuit packaging, low–k dielectric layers in integrated circuit multilevel interconnects, thermally conductive adhesive films, thermally conductive films in thermoelectric cooling devices, passivation films for integrated circuit devices (ICs), and field emission cathodes) |
