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. 2022 Jan 29;62(2):167–174. doi: 10.1007/s12088-022-01001-4

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