From: Current and future prospects for nanotechnology in animal production
Nanoparticle | Type | Experiment | In vitro/ In vivo | Cell line | Animal production application | Reference |
---|---|---|---|---|---|---|
Gold and Copper | Metal | Biocides for water treatment | In vitro | N/A | Biocide | [5] |
Casein micelles | Natural | Determining storage capacity and stabilization of encapsulated bioactive compounds and their bioavailability | In vivo Humans | N/A | Nutrient delivery | [21] |
Lipid nanoparticles | Nanostructured | Simulated digestion assay to test bioavailability of loaded compounds | In vitro | N/A | Nutrient delivery | [25] |
Cruciferin | Nanostructured | Encapsulation abilities and nutrient release studies | In vitro | Caco-2 (Human cancer cells) | Nutrient delivery | [26] |
Calcium carbonate and calcium citrate | Metal | Bioavailability differences between microparticles and nanoparticles | In vivo Ovariectomized mice | N/A | Nutrient delivery | [27] |
Silver | Metal | Eco-friendly biocide synthesis | In vitro Vibrio cholerae | N/A | Biocide | [31] |
qPDMAEMA-agarose | Polymer | Microbial growth inhibitory properties of qPDMAEMA in solution and hydrogels | In vitro E. coli S. aureus Biofilms | N/A | Biocide | [33] |
Copper | Metal | Enhancing growth promoting effects of copper by nanoscaling | In vivo Piglets | N/A | Nutrient delivery and Biocide | [38] |
Gold | Metal | Functionalize with amoxicillin to overcome bacterial resistance. | In vitro Gram + Gram – In vivo Mice | L929 (Mouse fibroblasts) | Biocide | [40] |
Polyacrylate | Polymer | Testing protective abilities towards loaded penicillin and aiding its antibacterial activity | In vitro S. aureus (methicillin-susceptible and -resistant strains) | N/A | Biocide | [41] |
Chitosan | Polymer | Evaluating efficiency of drug loading and release | In vitro E. coli (tetracycline-resistant strain) | N/A | Biocide | [43] |
qPDMAEMA-CNC | Polymer | Analyzing viral-binding ability for the concentration and extraction of viruses and virus-like particles | In vitro Cowpea chlorotic mottle virus Norovirus-like particles | Spodoptera frugiperda Sf9 (Insect cells) | Biocide | [44] |
Triclosan | Polymer | Increasing antimicrobial activity of organic agents through aqueous nanodisperive techniques | In vitro Corynebacterium | N/A | Biocide | [46] |
Iron oxide | Metal | Imaging applications in functional studies in vivo | In vitro | Neural progenitor cells Pheochromocytoma cells (Rat lineage) | Veterinary Medicine | [60] |
Carbon (glucose- and sucrose-derived) | Nanostructured | Demonstrating anticancer bioactivity of loaded drugs | In vitro | H157 (Human cancer cells) | Veterinary Medicine | [61] |
Mesoporous silica | Nanostructured | Spatial imaging of drug release in the body | In vitro | MCF-7 (Human cancer cells) | Veterinary Medicine | [62] |
Poly(L-lactide)- and Poly(D-lactide)-b-poly(acrylic acid) | Nanostructured | Investigation into new controlled delivery of therapeutics | In vitro | N/A | Veterinary Medicine | [66] |
Albumin-dextran | Nanostructured | Bind hydrophobic drugs to create aqueous solutions | In vitro | N/A | Veterinary Medicine | [67] |
Zinc oxide | Metal | Toxic effects on livestock sperm | In vitro | Sperm (Human) | Reproduction | [83] |
Titanium oxide | Metal | Toxic effects on livestock sperm | In vitro | Sperm (Bubalus bubalis) | Reproduction | [84] |
Antibody-coated or lectin-coated F2O3 | Metal | Nanopurification of semen | In vitro | Sperm (Bos Taurus) | Reproduction | [75] |
Mesoporous silica | Nanostructured | Transfer mediator for nucleic acid/protein cargo to sperm | In vitro | Sperm (Boar) | Reproduction | [81] |
Silver | Metal | Antimicrobial testing of silver nanoparticles bound to cellulose fibers with alkali lignin | In vitro E. coli | N/A | Biocide and Veterinary Medicine | [85] |
Biocellulose | Natural | Designing an antiseptic, collagen-stimulating wound dressing | In vitro Infectious bacteria | N/A | Biocide and Veterinary Medicine | [86] |