Table 2.
Different potential nanotherapeutic treatments used for various biotechnological applications
| Function | Type of Nanoparticles | Characteristics of Nanoparticles | References |
|---|---|---|---|
| Antibacterial agents | AgNPs | Inhibition of cell wall synthesis | [5, 6] |
| Cellular uptake of silver ions, | |||
| Generation of reactive oxygen species | |||
| Cascade of intracellular mechanism | |||
| Disrupting protein and nucleic acid synthesis | |||
| AuNPs | Efficient photothermal therapy with reactive oxygen species |
[3] [53] |
|
| Photoacoustic effect, membrane disintegrity, enzyme inhibition | |||
| CuNPs | Penetration of bacterial cell wall | [38] | |
| Release and accumulation of copper ions which subsequently bind with DNA and damage its helical structure | |||
| Antifungal agents | Chitosan NPs | Interaction with negatively charged groups of lipopolysccharides and proteins on the surface of microbial cells | [48] |
| Disintegration of cell membrane, inhibit mRNA and protein synthesis | |||
| Inhibition of sporulation and germination of spores | |||
| Interfering with activity of growth promoting hormones | |||
| ZnO NPs | Augmented activity against dermatophyte infections | [45] | |
| Synergistic antifungal effect in combination with other antifungal drugs | |||
| Lipid NPs | Less cytotoxicity and prolonged circulation time | [45] | |
| Improves drug concentration in epidermis and minimizes cutaneous irritation | |||
| Suncreen | TiO2NPs | Augmented UVB light absorbing capacity | [1] |
| ZnO NPs | Absorb and scatter visible light thus provides optimal transparency, broad spectrum activity against UVA and UVB | ||
| Ultrasomes | Endonuclease enzyme entrapped in specialized liposome, capable of detecting damaged DNA and initiates its removal | [1] | |
| Helps in stimulating production of melanin by melanocyte | |||
| Photosomes | Specialized liposomal structure encapsulating photolyase | [1] | |
| Releases photo-activated enzyme, capable of repairing skin’s DNA damaged due to UV exposure | |||
| Anti-ageing | Niosomes | Increased stability of entrapped drugs formulations improved bioavailability of poorly absorbed drugs and enhanced skin penetration | [60] |
| Ultrasomes | Specialized liposomal structure capable of boosting skin’s natural collagen production to retain elasticity, repair cellular damage | ||
| Nanoemulsion | Transport beneficial bioactive ingredients in high concentrations deep into the skin for pronounced effects | [61] | |
| Cancer Therapy and Diagnosis |
Superparamagnetic Iron oxide NPs |
Used in magenetic resonance imaging (MRI) with cancer cell lines with exceptionally | [41] |
| Quantum Dots | Emit fluorescence in near infra red region making it suitable for colorectal cancer and lymphoma | ||
| High tissue penetration depth and higher spatial and temporal resolution | |||
| AuNPs | Good contrast agent due to small size, good biocompatibility and high atomic number | [3] | |
| Carbon nanotubes | Non-invasive penetration of biofilms | [32] | |
| Delivery of various drug molecules into living cells | |||
| Polymeric nanoparticles | Favourable pharmacokinetic profile | [1] | |
| Well-tolerable toxicities | |||
| Cleansing agent | Nanoemulsions and Micelles | Preserves and protects skin barrier integrity due to reduction in trans epidermal water loss | [1] |
| Removes skin soil with high efficiency | |||
| Phototherapy | Fullerene | Increased anti-tumor effect in a dose dependent manner for C60 and high | [1] |
| fluence intensity | |||
| Reactive oxygen species generation with low level laser irradiation | |||
| Tolerable toxicities | |||
| Carbon nanotubes | Exceptional thermal behaviour on getting activated by suitable light source | [32] | |
| Prolong blood circulation time | |||
| Enhanced biocompatibility and less aggregation, thus a good ablation agent | |||
| Graphene nanoparticles | Strong optical absorption in near infrared spectrum | [33] | |
| High surface activity |